mhurhangee/ep-ind-claims huggingface dataset:
A shock absorber comprising: a base structure; and a shock-absorbing rib structure on a face of the base structure, the shock-absorbing rib structure including: a main buffer supported by the base structure and having a cubic or rectangular parallelepiped shape; and characterised in that the shock-absorbing rib structure further includes an auxiliary buffer supported by the base structure at opposed ends of the auxiliary buffer and apart from the base structure between the opposed ends of the auxiliary buffer. a base structure; and a shock-absorbing rib structure on a face of the base structure, the shock-absorbing rib structure including: a main buffer supported by the base structure and having a cubic or rectangular parallelepiped shape; and characterised in that the shock-absorbing rib structure further includes an auxiliary buffer supported by the base structure at opposed ends of the auxiliary buffer and apart from the base structure between the opposed ends of the auxiliary buffer. a main buffer supported by the base structure and having a cubic or rectangular parallelepiped shape; and characterised in that the shock-absorbing rib structure further includes an auxiliary buffer supported by the base structure at opposed ends of the auxiliary buffer and apart from the base structure between the opposed ends of the auxiliary buffer.
Method for composting spent mushroom compost, wherein said spent mushroom compost is separated from a casing soil prior to composting of said spent mushroom compost, said method comprising of composting said spent mushroom compost under conditions for providing composted spent mushroom compost with a dry matter content of 45% to 90%, wherein said spent mushroom compost is composted at a temperature of 30-85°C, for a minimum period of time of 5 days.
Method for controlling a device that comprises at least a gas compressor installation on the one part, and a heat recovery system on the other part, whereby the heat recovery system absorbs heat from the gas compressor installation, characterised in that the composite device further comprises a controller and means for determining one or more system parameters of both the gas compressor installation and the heat recovery system, whereby the aforementioned system parameters are indicative of the partial efficiency of the gas compressor installation and the heat recovery system respectively, and whereby the controller controls both the gas compressor installation and the heat recovery system on the basis of the aforementioned system parameters, such that the overall efficiency of the composite device is optimised.
An off-shore structure comprising at least: (i) an essential power system for supplying power to at least one essential power system consumer, wherein the at least one essential power system consumer is sensitive to one or both of voltage and frequency fluctuations and comprising at least one essential power system electrical generator electrically connected to an essential power system distribution system to which the at least one essential power system consumer is electrically connected; and (ii) a plant power system for supplying power to at least one plant power system consumer, wherein the at least one plant power system consumer is likely to cause excessive variations in one or both of the voltage and frequency, the plant power system comprising at least one plant power system electrical generator electrically connected to a plant power system distribution system, to which the at least one plant power system consumer is electrically connected wherein the essential power system is electrically segregated from the plant power system, and the essential power system and the plant power system have no electrical connection or inter-connection, such that there is no possibility for power transfer between the essential power system and the plant power system. (i) an essential power system for supplying power to at least one essential power system consumer, wherein the at least one essential power system consumer is sensitive to one or both of voltage and frequency fluctuations and comprising at least one essential power system electrical generator electrically connected to an essential power system distribution system to which the at least one essential power system consumer is electrically connected; and (ii) a plant power system for supplying power to at least one plant power system consumer, wherein the at least one plant power system consumer is likely to cause excessive variations in one or both of the voltage and frequency, the plant power system comprising at least one plant power system electrical generator electrically connected to a plant power system distribution system, to which the at least one plant power system consumer is electrically connected
A method of operating a mobile switching center, MSC, for delivering a mobile terminated call from a calling user equipment, UE, to a called UE over a wireless network, said method comprising the steps of: receiving a provide roaming number, PRN, message from a home location register, HLR, associated with the called UE when the mobile terminated call is originated, said PRN message comprising at least a calling UE identification; sending a paging request to a mobility management entity, MME, said paging request causing said MME to start paging the called UE; receiving a SGs service request message, the SGs being an interface between the MSC, and an MME, from the MME indicating the called UE is in Evolved Packet System, EPS, Mobility Management, EMM,-connected mode; and sending (1040; 1050) a mobile station roaming number, MSRN, to the HLR in a PRN acknowledge, PRN ack, message before receiving a response to the paging request from the called UE; setting (402; 502) a guard timer when the SGS service request message from the MME is received and sending (114; 504) the PRN Ack message after the guard timer expires; and if the UE does not answer the call by the time the guard timer expires or rejects the paging request before the guard timer expires, a PRN nack message is sent to the HLR and a call forwarding process is initiated. receiving a provide roaming number, PRN, message from a home location register, HLR, associated with the called UE when the mobile terminated call is originated, said PRN message comprising at least a calling UE identification; sending a paging request to a mobility management entity, MME, said paging request causing said MME to start paging the called UE; receiving a SGs service request message, the SGs being an interface between the MSC, and an MME, from the MME indicating the called UE is in Evolved Packet System, EPS, Mobility Management, EMM,-connected mode; and sending (1040; 1050) a mobile station roaming number, MSRN, to the HLR in a PRN acknowledge, PRN ack, message before receiving a response to the paging request from the called UE; setting (402; 502) a guard timer when the SGS service request message from the MME is received and sending (114; 504) the PRN Ack message after the guard timer expires; and if the UE does not answer the call by the time the guard timer expires or rejects the paging request before the guard timer expires, a PRN nack message is sent to the HLR and a call forwarding process is initiated.
A furniture assembly comprising: a first furniture element defining a first surface and a first groove in said first surface, said first groove defining a first side surface and an opposite second side surface; a second furniture element comprising a first tongue for being received in said first groove, said first tongue defining a first tongue surface and an opposite second tongue surface, said second tongue surface being adapted for facial cooperation with said second side surface of said first groove, said first side surface and said first tongue surface defining a first elongated compartment in said facial cooperation between said second tongue surface and said second side surface; and a first elongated furniture locking element for insertion into said first elongated compartment for engaging said first side surface and said first tongue surface and for forcing said second tongue surface toward said second side surface. a first furniture element defining a first surface and a first groove in said first surface, said first groove defining a first side surface and an opposite second side surface; a second furniture element comprising a first tongue for being received in said first groove, said first tongue defining a first tongue surface and an opposite second tongue surface, said second tongue surface being adapted for facial cooperation with said second side surface of said first groove, said first side surface and said first tongue surface defining a first elongated compartment in said facial cooperation between said second tongue surface and said second side surface; and a first elongated furniture locking element for insertion into said first elongated compartment for engaging said first side surface and said first tongue surface and for forcing said second tongue surface toward said second side surface.
A transcutaneous nerve tissue stimulation system, comprising: (a) a signal generator for generating a stimulation signal; (b) at least a first stimulator coupled to said signal generator, said first stimulator adapted to be positioned adjacent to a patient to provide a signal to modulate a target tissue in the patient; and, (c) at least a first passive implanted member adapted to modify the signal from the first stimulator. wherein the first implanted member: has a portion thereof that is electrically conductive; and is physically disconnected from the first stimulator; wherein the transcutaneous nerve tissue stimulation system is devoid of any other elements coupling the first stimulator to the first passive implanted member, whereby, in use the signal from the first stimulator propagates from a patient's skin surface to the first passive implanted member solely through body tissue of the patient; and modulation of the target tissue is enhanced relative to the modulation that would occur in the absence of the first passive member, characterised in that said implanted member is configured to be positioned along approximately its entire length adjacent to or contiguous with the target tissue. (a) a signal generator for generating a stimulation signal; (b) at least a first stimulator coupled to said signal generator, said first stimulator adapted to be positioned adjacent to a patient to provide a signal to modulate a target tissue in the patient; and, (c) at least a first passive implanted member adapted to modify the signal from the first stimulator. wherein the first implanted member: has a portion thereof that is electrically conductive; and is physically disconnected from the first stimulator; wherein the transcutaneous nerve tissue stimulation system is devoid of any other elements coupling the first stimulator to the first passive implanted member, whereby, in use the signal from the first stimulator propagates from a patient's skin surface to the first passive implanted member solely through body tissue of the patient; and modulation of the target tissue is enhanced relative to the modulation that would occur in the absence of the first passive member, characterised in that said implanted member is configured to be positioned along approximately its entire length adjacent to or contiguous with the target tissue. has a portion thereof that is electrically conductive; and is physically disconnected from the first stimulator; wherein
A fiber connection assembly comprising: - a first coupling member comprising a first housing, a protrusion protruding from a first side of the first housing, and a first optical connector arranged in the protrusion; - a second coupling member comprising a second housing, a recess arranged at a first side of the second housing and a second optical connector arranged in the second housing in or next to the recess, the first and second coupling members being arranged to be coupled to each other by way of moving the first coupling member relative to the second coupling member in a first direction towards and onto the second coupling member, thereby inserting the protrusion into the recess, and then by rotating the first coupling member relative to the second coupling member in a plane perpendicular to the first direction and around a rotation axis until the first optical connector is connected to the second optical connector. - a first coupling member comprising a first housing, a protrusion protruding from a first side of the first housing, and a first optical connector arranged in the protrusion; - a second coupling member comprising a second housing, a recess arranged at a first side of the second housing and a second optical connector arranged in the second housing in or next to the recess,
Arrangement of a level detection device and a casting equipment, the casting equipment comprising at least a crystallizer and oscillating linearly, in a manner concordant with a substantially vertical direction of advance of the steel and a desired frequency of oscillation, said level detection device being solid with said casting equipment so as to oscillate at the same frequency of oscillation and being disposed at a predetermined operating height, characterized in that said level detection device comprises, or is associated with, means to generate a continuous magnetic field (20a, 20b), oriented transversely to the direction of advance of the steel in the casting equipment, so as to generate alternate induced currents in the molten steel, said means to generate a continuous magnetic field (20a, 20b) being associated with a wall of the crystallizer with a magnetic pole facing toward said wall, and means to detect the magnetic field disposed laterally facing said generating means and configured to detect a variable induced magnetic field generated by and concatenated with said alternate induced currents, wherein the magnetic field generating means consist of at least two magnets (20a, 20b), laterally facing and oriented toward the wall of the crystallizer with the same magnetic pole, the detection means being disposed in an intermediate position between said magnets (20a, 20b), wherein the field lines generated by said at least two magnets (20a, 20b) develop substantially parallel to and outside the position of said detection means, the intensity of said variable induced magnetic field as detected by the detection means being correlated to the level of the molten steel in the casting equipment with respect to said operating height.
Aircraft comprising a substantially flat optical communication terminal on an external surface of the aircraft, wherein the substantially flat optical communication terminal is configured to communicate with a ground station via a free-space optical communication link; and wherein the substantially flat optical communication terminal comprises: a plurality of functional layers in a layer stack, with each functional layer implementing a different function in terms of optical compensation and beam processing, the layer stack comprising: a first layer including an optical phase array, wherein the optical phase array includes multiple antenna elements binned in a plurality of two-dimensional antenna blocks, wherein each of the antenna blocks is connected to a common bus and coupled to a single block-associated phase tuning element, and wherein the multiple antenna elements are overlaid with flat optical lenses; a second layer stacked on top of the first layer including a liquid crystal modulator or an array of micro-electromechanical elements; and a third layer stacked on top of the second layer including a polarization grating. a first layer including an optical phase array, wherein the optical phase array includes multiple antenna elements binned in a plurality of two-dimensional antenna blocks, wherein each of the antenna blocks is connected to a common bus and coupled to a single block-associated phase tuning element, and wherein the multiple antenna elements are overlaid with flat optical lenses; wherein the optical phase array includes multiple antenna elements binned in a plurality of two-dimensional antenna blocks, wherein each of the antenna blocks is connected to a common bus and coupled to a single block-associated phase tuning element, and wherein the multiple antenna elements are overlaid with flat optical lenses; a second layer stacked on top of the first layer including a liquid crystal modulator or an array of micro-electromechanical elements; and a third layer stacked on top of the second layer including a polarization grating.
A work head unit comprising: a component holding section configured to hold a component and be rotatable around a rotational axis; and a detection section (75, 78) provided at a position facing the component holding section and configured to detect the orientation of the component holding section, wherein the component holding section includes a collecting member having a cylindrical tube section that is configured to collect a component, and a syringe member configured such that the collecting member is able to be attached to and removed from the syringe member, characterized in that the detection section is provided at a position facing the cylindrical tube section of the collecting member from an outer circumferential side of the component holding section. a component holding section configured to hold a component and be rotatable around a rotational axis; and a detection section (75, 78) provided at a position facing the component holding section and configured to detect the orientation of the component holding section, wherein the component holding section includes a collecting member having a cylindrical tube section that is configured to collect a component, and a syringe member configured such that the collecting member is able to be attached to and removed from the syringe member, characterized in that the detection section is provided at a position facing the cylindrical tube section of the collecting member from an outer circumferential side of the component holding section.
A welding system comprising: a gas line (34, 94) coupled to components (96, 131) of the welding system, wherein the gas line (34, 94) is configured to convey a gas between components of the welding system; characterized by a first gas line transducer coupled to the gas line (34, 94), wherein the first gas line transducer is configured to communicate via radio signals transmitted through the gas line (34, 94), wherein the first gas line transducer comprises an emitter emitting the radio signals partially towards an axis of the gas line (34, 94) and being oriented at an angle relative to an inner wall of the gas line (34, 94). a gas line (34, 94) coupled to components (96, 131) of the welding system, wherein the gas line (34, 94) is configured to convey a gas between components of the welding system; characterized by a first gas line transducer coupled to the gas line (34, 94), wherein the first gas line transducer is configured to communicate via radio signals transmitted through the gas line (34, 94), wherein the first gas line transducer comprises an emitter emitting the radio signals partially towards an axis of the gas line (34, 94) and being oriented at an angle relative to an inner wall of the gas line (34, 94).
A polypeptide comprising a VHH of a camelid heavy-chain antibody fused in-frame with additional peptides, wherein said polypeptide comprises: - a sequence selected among the group consisting of SEQ ID NO:1 and SEQ ID NO:32 to SEQ ID NO:34 at the NH 2 -terminal extremity of said polypeptide; - a VHH which has the sequence of SEQ ID NO:3; - a fused in-frame sequence selected among the list of: SEQ ID NO: 20, SEQ ID NO: 24, SEQ ID NO: 7, SEQ ID NO: 25, SEQ ID NO: 26, SEQ ID NO: 27, SEQ ID NO: 28, SEQ ID NO: 29, SEQ ID NO: 30 and SEQ ID NO: 31, preferably the sequence of SEQ ID NO:7; and wherein said polypeptide is permeable across the blood-brain barrier and has an isoelectric point equal to or higher than 8.5, preferably equal to or higher than 9. - a sequence selected among the group consisting of SEQ ID NO:1 and SEQ ID NO:32 to SEQ ID NO:34 at the NH 2 -terminal extremity of said polypeptide; - a VHH which has the sequence of SEQ ID NO:3; - a fused in-frame sequence selected among the list of: SEQ ID NO: 20, SEQ ID NO: 24, SEQ ID NO: 7, SEQ ID NO: 25, SEQ ID NO: 26, SEQ ID NO: 27, SEQ ID NO: 28, SEQ ID NO: 29, SEQ ID NO: 30 and SEQ ID NO: 31, preferably the sequence of SEQ ID NO:7;
An image sensor, comprising: a pixel region in which a plurality of pixel units are arranged, each pixel unit having a plurality of photoelectric conversion portions(101A, 101B); a driving circuit for driving the pixel region to read out signals simultaneously from all the pixel units in the pixel region; a focus detection signal processor for generating focus detection signals by performing a correlation computation processing using first signals one of which is read out from each of all the plurality of photoelectric conversion portions of the pixel unit by the driving circuit; a captured image signal processor that generates captured image signals using second signals each of which is a sum of signals read out from all of the photoelectric conversion portions of the pixel unit by the driving circuit, the generating of the focus detection signals and captured image signals being performed in parallel; a focus detection signal output circuit that outputs the focus detection signals; and a captured image signal output circuit that outputs the captured image signal, wherein the pixel region and the driving circuit are formed on a first semiconductor chip and, the captured image signal processor, the focus detection signal processor, the focus detection signal output circuit and the captured image signal output circuit are formed on a second semiconductor chip that is different from the first semiconductor chip, wherein the first and second semiconductor chips are stacked. a pixel region in which a plurality of pixel units are arranged, each pixel unit having a plurality of photoelectric conversion portions(101A, 101B); a driving circuit for driving the pixel region to read out signals simultaneously from all the pixel units in the pixel region; a focus detection signal processor for generating focus detection signals by performing a correlation computation processing using first signals one of which is read out from each of all the plurality of photoelectric conversion portions of the pixel unit by the driving circuit; a captured image signal processor that generates captured image signals using second signals each of which is a sum of signals read out from all of the photoelectric conversion portions of the pixel unit by the driving circuit, the generating of the focus detection signals and captured image signals being performed in parallel; a focus detection signal output circuit that outputs the focus detection signals; and a captured image signal output circuit that outputs the captured image signal, wherein the pixel region and the driving circuit are formed on a first semiconductor chip and, the captured image signal processor, the focus detection signal processor, the focus detection signal output circuit and the captured image signal output circuit are formed on a second semiconductor chip that is different from the first semiconductor chip, wherein the first and second semiconductor chips are stacked.