mhurhangee/ep-ind-claims huggingface dataset:
A portable electric pruning shears (100;200;300;400;500) comprising: - a longitudinal body intended to be held by one hand of a user, called the holding hand, - a cutting tool arranged at a distal end of said body, - an electric motor for operating said cutting tool, and - a security system provided to protect said user; wherein said security system comprises: - an emitter for emitting at least one electromagnetic wave and a receiver for receiving at least one electromagnetic wave emitted by said emitter, one of which is embedded by said portable electric pruning shears (100;200;300;400;500) and the other one of which is intended to be worn by the other hand of the user, called the free hand, and - a control unit for acting on the operating of the cutting tool as a function of the wave(s) received by said receiver; characterized in that: - the emitter comprises several emitting modules, each emitting a wave in a different direction; and/or - the receiver comprises several receiving modules, each receiving a wave incident in a different direction. - a longitudinal body intended to be held by one hand of a user, called the holding hand, - a cutting tool arranged at a distal end of said body, - an electric motor for operating said cutting tool, and - a security system provided to protect said user; wherein said security system comprises: - an emitter for emitting at least one electromagnetic wave and a receiver for receiving at least one electromagnetic wave emitted by said emitter, one of which is embedded by said portable electric pruning shears (100;200;300;400;500) and the other one of which is intended to be worn by the other hand of the user, called the free hand, and - a control unit for acting on the operating of the cutting tool as a function of the wave(s) received by said receiver; - an emitter for emitting at least one electromagnetic wave and a receiver for receiving at least one electromagnetic wave emitted by said emitter, one of which is embedded by said portable electric pruning shears (100;200;300;400;500) and the other one of which is intended to be worn by the other hand of the user, called the free hand, and - a control unit for acting on the operating of the cutting tool as a function of the wave(s) received by said receiver; characterized in that: - the emitter comprises several emitting modules, each emitting a wave in a different direction; and/or - the receiver comprises several receiving modules, each receiving a wave incident in a different direction. - the emitter comprises several emitting modules, each emitting a wave in a different direction; and/or - the receiver comprises several receiving modules, each receiving a wave incident in a different direction.
A process for hydrodesulfurizing an olefinic naphtha feedstock while retaining a substantial amount of the olefins, which feedstock has a T 95 boiling point below 250°C and contains at least 50 ppmw of organically bound sulfur and from 5% to 60% olefins, said process comprising: (a) selective diolefin hydrogenation, under reaction conditions involving a temperature from 100°C to 200°C, a pressure of 5 bar to 40 bar or 50 bar, and a gas to oil ratio of 2 Nm 3 /m 3 or 4 Nm 3 /m 3 to 5 Nm 3 /m 3, 10 Nm 3 /m 3 or 25 Nm 3 /m 3 to convert at least 90 % of the diolefins to alkanes or mono-olefins providing a pre-treated feedstock (b) hydrodesulfurizing the pre-treated feedstock in a sulfur removal stage in the presence of hydrogen and a hydrodesulfurization catalyst, at hydrodesulfurization reaction conditions including a temperature from 200°C to 350°C, a pressure of 2 bar, 5 bar or 10 bar to 40 bar or 50 bar, and gas to oil ratio of 750 Nm 3 /m 3, 1000 Nm 3 /m 3, 1100 Nm 3 /m 3 or 1200 Nm 3 /m 3 to 1500 Nm 3 /m 3, 2000 Nm 3 /m 3 or 2500 Nm 3 /m 3, to convert at least 50 % of the organically bound sulfur to hydrogen sulfide and to produce a desulfurized product stream containing from 0 ppmw, 0.1 ppmw or 1 ppmw to 5 ppmw, 8 ppmw, 10 ppmw or 50 ppmw organically bound sulfur. (a) selective diolefin hydrogenation, under reaction conditions involving a temperature from 100°C to 200°C, a pressure of 5 bar to 40 bar or 50 bar, and a gas to oil ratio of 2 Nm 3 /m 3 or 4 Nm 3 /m 3 to 5 Nm 3 /m 3, 10 Nm 3 /m 3 or 25 Nm 3 /m 3 to convert at least 90 % of the diolefins to alkanes or mono-olefins providing a pre-treated feedstock (b) hydrodesulfurizing the pre-treated feedstock in a sulfur removal stage in the presence of hydrogen and a hydrodesulfurization catalyst, at hydrodesulfurization reaction conditions including a temperature from 200°C to 350°C, a pressure of 2 bar, 5 bar or 10 bar to 40 bar or 50 bar, and gas to oil ratio of 750 Nm 3 /m 3, 1000 Nm 3 /m 3, 1100 Nm 3 /m 3 or 1200 Nm 3 /m 3 to 1500 Nm 3 /m 3, 2000 Nm 3 /m 3 or 2500 Nm 3 /m 3, to convert at least 50 % of the organically bound sulfur to hydrogen sulfide and to produce a desulfurized product stream containing from 0 ppmw, 0.1 ppmw or 1 ppmw to 5 ppmw, 8 ppmw, 10 ppmw or 50 ppmw organically bound sulfur.
A method for the manufacture of packagings, in each case with a tubular packaging body, wherein a tubular moulded body is formed from a flat material with two longitudinal sides (8.1) facing away from one another by means of folding or rolling and by means of subsequent joining of the longitudinal sides (8.1) in the form of a butt joint by means of butt welding, wherein the flat material used as the source material has at least two layers (7.1 - 7.3), wherein in the joining of the longitudinal sides (8.1) each layer is joined with itself in each case, wherein on its outer surface the moulded body is provided with at least one outer layer (7.4) surrounding the moulded body continuously over the whole periphery, and the at least one outer layer (7.4) surrounding the moulded body continuously over its whole periphery is applied by means of extrusion.
An antenna system comprising: • a first antenna portion configured to transmit a first signal received from a first feed, wherein the first signal has a frequency in a range of from about 30 megahertz to about 6 gigahertz, GHz; and • a second antenna portion configured to transmit a second signal received from a second feed, the second antenna portion being capacitively coupled to the second feed and inductively coupled to the first antenna portion, the second antenna portion being configured to transmit the second signal having a frequency greater than a frequency of the first signal, ∘ wherein the second signal has a frequency in a range of from about 24 GHz to about 300 GHz, ∘ wherein the second antenna portion is capacitively coupled to the second feed via a capacitive coupling structure that includes a discrete or distributed capacitor, ∘ wherein the capacitive coupling structure comprises parallel conductive plates in one plane, parallel conductive plates on different planes, or interdigitally coupled lines. • a first antenna portion configured to transmit a first signal received from a first feed, wherein the first signal has a frequency in a range of from about 30 megahertz to about 6 gigahertz, GHz; and • a second antenna portion configured to transmit a second signal received from a second feed, the second antenna portion being capacitively coupled to the second feed and inductively coupled to the first antenna portion, the second antenna portion being configured to transmit the second signal having a frequency greater than a frequency of the first signal, ∘ wherein the second signal has a frequency in a range of from about 24 GHz to about 300 GHz, ∘ wherein the second antenna portion is capacitively coupled to the second feed via a capacitive coupling structure that includes a discrete or distributed capacitor, ∘ wherein the capacitive coupling structure comprises parallel conductive plates in one plane, parallel conductive plates on different planes, or interdigitally coupled lines. ∘ wherein the second signal has a frequency in a range of from about 24 GHz to about 300 GHz, ∘ wherein the second antenna portion is capacitively coupled to the second feed via a capacitive coupling structure that includes a discrete or distributed capacitor, ∘ wherein the capacitive coupling structure comprises parallel conductive plates in one plane, parallel conductive plates on different planes, or interdigitally coupled lines.
A method of connecting modules of an endoluminal prosthesis prior to surgery, comprising: providing a prosthetic trunk; providing a prosthetic branch having proximal and distal ends; anastomosing the proximal end of the prosthetic branch to the prosthetic trunk; positioning the prosthetic branch and attaching the prosthetic branch to the prosthetic trunk; characterised by positioning the prosthetic branch with respect to the prosthetic trunk and attaching the prosthetic branch to the prosthetic trunk so as to provide a helical fluid passage in the prosthetic branch. providing a prosthetic trunk; providing a prosthetic branch having proximal and distal ends; anastomosing the proximal end of the prosthetic branch to the prosthetic trunk; positioning the prosthetic branch and attaching the prosthetic branch to the prosthetic trunk; characterised by positioning the prosthetic branch with respect to the prosthetic trunk and attaching the prosthetic branch to the prosthetic trunk so as to provide a helical fluid passage in the prosthetic branch.
A light-emitting device comprising a light-emitting layer between an anode and a cathode, in which the cathode is a metallic composite in which a conjugated compound which is an aromatic compound having a hetero atom-containing group and which has a molecular weight of 1.0X103 to 5.0X106 is adsorbed to a metallic nanostructure of a metal of Group 11 of the Periodic Table having an aspect ratio of 10 or more and having a largest dimension of 1000 nm or more as determined using scanning electron microscopy, wherein the conjugated compound is a macromolecular compound having a repeating unit represented by the following formulae: wherein n 3 represents an integer of 2 to 30, n 4 represents an integer of 1 to 10, and R is a hydrogen atom or a C 1-6 alkyl group.
Communication system for the communication in a communication network, having: a first base station provided for a communication of a first communication device in the communication network, wherein the first base station has a first control interface for its resource control; a second base station provided for a communication of a second communication device in the communication network, wherein the second base station has a second control interface for its resource control; wherein the first control interface and the second control interface are provided for a coordination of the first base station and the second base station in the communication system; and a controller configured to change a time delay in the communication between the first control interface and the second control interface in order to change a data rate of the communication devices (107, 109). a first base station provided for a communication of a first communication device in the communication network, wherein the first base station has a first control interface for its resource control; a second base station provided for a communication of a second communication device in the communication network, wherein the second base station has a second control interface for its resource control; wherein the first control interface and the second control interface are provided for a coordination of the first base station and the second base station in the communication system; and a controller configured to change a time delay in the communication between the first control interface and the second control interface in order to change a data rate of the communication devices (107, 109).
Method for producing a plate heat exchanger comprising a plurality of heat exchanger plates, wherein the heat exchanger plates are provided adjacent each other and form a plate package with first plate interspaces for a first medium and second plate interspaces for a second medium, wherein each of the heat exchanger plates comprises portholes which form ports (8, 9, 10, 11) extending through the plate package, a heat transfer area, an edge area extending outside the heat transfer area and the ports (8, 9, 10, 11), a gasket groove extending in the edge area outside the heat transfer area and the ports (8, 9, 10, 11), and wherein a gasket is provided in the gasket groove for tight abutment against an adjacent plate in the plate heat exchanger, the heat exchanger plates being at least partly coated with an antifouling coating, characterized in that longitudinal portions of the gasket groove are covered by a sealing material on at least one side of the plates before the antifouling coating is applied, the plates are then coated by an anti-fouling coating on at least one side, and the sealing material is removed after the antifouling coating step.
Device comprising a grid-side voltage source, comprising a rectifier, comprising an energy storage unit formed of capacitors, comprising at least one inverter, and comprising a DC-to-DC converter, the energy storage unit and the inverter being connected in parallel with the DC-to-DC converter, and the DC-to-DC converter being connected to the grid-side voltage source by means of the rectifier, the rectifier being connected to a secondary winding which is inductively coupled to a primary conductor, which is provided in a stationary manner and is connected to the voltage source, the DC-to-DC converter comprising an actuation unit, the actuation unit comprising a power regulator, which determines a first target effective value I_targ_eff, characterised in that the actuation unit comprises a current regulator, a second target value i_targ(t) being able to be fed to the current regulator and being determined by multiplying a signal u_A_f(t) by the first target effective value I_targ_eff, the signal u_A_f(t) being determined, by means of band-pass filtering and normalisation, from the voltage u_A(t) present at the side of the DC-to-DC converter facing the rectifier.
A method for forming a vacuum in an X-ray tube assembly, the method comprising: providing the X-ray tube assembly defining an internal vacuum chamber in fluid communication with an exterior of the X-ray tube assembly via a conduit (160, 260) in the X-ray tube assembly between the vacuum chamber and the exterior of the X-ray tube assembly; positioning a plug (170, 270) in the conduit (160, 260) to at least partially occlude the conduit (160, 260) such that at least one space between the plug (170, 270) and the X-ray tube assembly permits fluid to travel between the vacuum chamber and the exterior of the X-ray tube assembly; evacuating the vacuum chamber so that gas in the vacuum chamber exits the vacuum chamber through the at least one space between the plug (170, 270) and the X-ray tube assembly; respositioning the plug (170, 270) further into the conduit (160, 260) towards the vacuum chamber; and sealing the evacuated vacuum chamber with the plug (170, 270) and conduit (160, 260) such that the vacuum chamber is sealed from the exterior of the X-ray tube assembly. providing the X-ray tube assembly defining an internal vacuum chamber in fluid communication with an exterior of the X-ray tube assembly via a conduit (160, 260) in the X-ray tube assembly between the vacuum chamber and the exterior of the X-ray tube assembly; positioning a plug (170, 270) in the conduit (160, 260) to at least partially occlude the conduit (160, 260) such that at least one space between the plug (170, 270) and the X-ray tube assembly permits fluid to travel between the vacuum chamber and the exterior of the X-ray tube assembly; evacuating the vacuum chamber so that gas in the vacuum chamber exits the vacuum chamber through the at least one space between the plug (170, 270) and the X-ray tube assembly; respositioning the plug (170, 270) further into the conduit (160, 260) towards the vacuum chamber; and sealing the evacuated vacuum chamber with the plug (170, 270) and conduit (160, 260) such that the vacuum chamber is sealed from the exterior of the X-ray tube assembly.
Heat exchanger, in particular for a refrigerant circulating in a motor vehicle, said exchanger comprising a first unit for circulating a first fluid defining first blades for circulating said first fluid and a second unit for circulating a second fluid defining second blades for circulating said second fluid, said blades (3, 4) being layered in a stacking direction of said blades such that an exchange of heat can take place between said first and second fluids, said units (1, 2) permitting the first fluid to circulate while avoiding the second unit, and permitting the second fluid to circulate while avoiding the first unit, said blades (3, 4) extending in a longitudinal direction, perpendicular to the stacking direction, and said first unit comprising collectors (5a, 5b) for the first fluid, situated in the area of a longitudinal end edge of the blades of said first unit, and/or said second unit comprising collectors (6a, 6b) for the second fluid, situated in the area of a longitudinal end edge of the blades of said second unit, said units (1, 2) comprising plates (11, 12), stacked in said stacking direction, said plates (11, 12) being paired in order to define said circulation blades (3,4), for each of the fluids, said plates (11, 12) of each of the units (1, 2) comprising a base (21,22), a raised edge (23,24) and a brazing lip (25, 26), the pairs of plates (11, 12) for each of the fluids exhibiting a part (13, 14) protruding from the pairs of plates for the other fluid, in planes that are orthogonal to said stacking direction, in such a way as to be able to free up a zone of said plates, referred to as header plates, for receiving said collectors (5a, 5b, 6a, 6b), the heat exchanger comprising fluid connections (15a, 15b, 16a, 16b) between the plates of the pairs of plates (11, 12) for a same fluid, situated in the area of said header plates, in such a way as to form said collectors (5a, 5b, 6a, 6b), said connections (15a, 15b, 16a, 16b) being situated externally to the pairs of plates (11, 12) for said other fluid, said plates (11, 12) comprising a longitudinal end edge (17, 18), referred to as the distal edge, opposite an opposing longitudinal end edge (19, 20) of said plates, in the area of which said fluid connections (15a, 15b, 16a, 16b) are situated, said distal edge (17, 18) being situated between two plates facing two neighboring pairs of plates for the circulation of the other fluid, characterised in that said blades (3, 4) comprise a baffle (27, 28) for the flow of the first and of the second fluid, and in that said distal edge (17, 18) includes a part of the contour of said fluid connections (15a, 15b, 16a, 16b).
Network entity for managing communications towards a user entity over a communication network, the network entity having: an access domain selector (109; 203) for determining an access domain of the user entity upon the basis of user entity specific data; and an application server (107; 201) for providing the user entity specific data, wherein the access domain selector (109; 203) refers to the application server (107; 201) in order to obtain the user entity specific data and characterized in that if the data required by the access domain selector (109; 203) cannot be provided by the application server (107; 201), then the access domain selector (109; 203) queries these data from a home subscriber server. an access domain selector (109; 203) for determining an access domain of the user entity upon the basis of user entity specific data; and an application server (107; 201) for providing the user entity specific data, wherein the access domain selector (109; 203) refers to the application server (107; 201) in order to obtain the user entity specific data and characterized in that if the data required by the access domain selector (109; 203) cannot be provided by the application server (107; 201), then the access domain selector (109; 203) queries these data from a home subscriber server.
Slicing machine for cutting slices from in particular strand-shaped material to be cut, preferably food, comprising a machine housing which holds a drive motor and a rotating and/or circumferentially movable circular knife driven by the drive motor, and comprising a product feed which feeds the material to be cut to the circular knife, the slicing machine comprising a stop plate and a movably arranged carriage, by means of which the material to be cut is fed to the circular knife, the circular knife being mounted directly on a bearing shaft arranged in the drive motor for the circular knife, the drive motor comprising at least one stator and a rotor, characterized in that the rotor is designed to be detachable from the stator, the stator is arranged in the machine housing, the machine housing has an insertion opening where the stator is arranged in the assembled state and through which the rotor is at least partially inserted into the stator, and the slicing machine has a fixing device for fastening the rotor and the stator to the machine housing by means of fixing means.
Device for utilization of photovoltaic panels with mills crushing panels without metal fittings and wiring, wherein in the housing on the support platform under the hopper a grinding mill is placed under which there is a belt conveyor the outlet of which is located above the acid tank, wherein, inside the tank there is an openwork basket which is lifted and lowered by a winch mounted above the tank, while next to the tank there is a tub with flushing agent, and above the tub there is an outlet for an air hose from the blower, while next to the tub, there is a belt conveyor, the outlet of which is located at the inlet to the heated screw conveyor and the mill outlet is located at the final processing station of the melted plastic and glass fractions.
A method of wireless communication, comprising: receiving a unicast device-to-device communication including a destination identifier and a header, the header comprising a sidelink shared channel, SL-SCH, subheader, or a packet data convergence protocol, PDCP, header; receiving a multicast device-to-device communication including the destination identifier; and differentiating the unicast device-to-device communication from the multicast device-to-device communication based on a version number provided in the SL-SCH subheader, or based on a service data unit, SDU, identifier, provided in the PDCP header, or based at least in part on an identifier of a group security key and an identifier of an encryption key provided in the PDCP header in the header of the unicast device-to-device communication. receiving a unicast device-to-device communication including a destination identifier and a header, the header comprising a sidelink shared channel, SL-SCH, subheader, or a packet data convergence protocol, PDCP, header; receiving a multicast device-to-device communication including the destination identifier; and differentiating the unicast device-to-device communication from the multicast device-to-device communication based on a version number provided in the SL-SCH subheader, or based on a service data unit, SDU, identifier, provided in the PDCP header, or based at least in part on an identifier of a group security key and an identifier of an encryption key provided in the PDCP header in the header of the unicast device-to-device communication.