mhurhangee/ep-ind-claims huggingface dataset:
Hand-held power tool, in particular heavy-duty helical hammer drill, with a gearing arrangement (14a; 14b), a hammer impact mechanism (16a; 16b) and a tool spindle (18a; 18b), wherein the hammer impact mechanism (16a; 16b) has a linearly moving beater (68a; 68b) with a linear impact loading direction, wherein the hammer impact mechanism (16a; 16b) has a driving rotational element (52a; 52b) with an axis of rotation (34a; 34b) which is arranged coaxially with respect to at least part of the tool spindle (18a; 18b), characterized in that the beater at least partially surrounds the tool spindle (18a; 18b) in at least one plane, and in that the driving rotational element (52a; 52b) is designed as an impact mechanism shaft which encases at least a region of the tool spindle (18a; 18b).
A booster which includes a booster component which includes a cup-shaped booster housing with an interior volume and a mouth, a booster explosive material in the interior volume, a cap engaged with the mouth, a substrate which is attached to the booster housing or which forms a part of the booster housing, an electronic circuit which is printed on the substrate and which includes a photovoltaic module for harvesting energy emitted by an energy source, a storage device for storing energy harvested by the photovoltaic module, an igniter (22,) a circuit, powered at least partly by energy drawn from the storage device and responsive to a control signal for firing the igniter, and a sleeve which is at least partly light-transmissive, engaged with the substrate and the housing, and wherein the housing is engageable with a light emitting component so that light emitted by the component impinges through the at least partly light-transmissive sleeve on the photovoltaic module to produce electrical energy for charging the storage device.
A method of manufacturing an interior material, comprising the steps of: joining a lower surface of a material layer and a hot-melt layer together; attaching a support tape for supporting an island to an upper surface of the material layer; forming a first lighting groove (L1, L2), through which light passes, by laser-etching a predetermined portion of the hot-melt layer and the material layer; forming a light-blocking layer on an upper surface of a transparent film through printing or painting; attaching a binder to a lower surface of the transparent film; forming a second lighting groove (L1', L2'), through which light passes, by laser-etching a predetermined portion of the light-blocking layer; combining a module resulting from step with a module resulting from step; replacing the support tape on the material layer with a fresh support tape; and obtaining an interior material by bonding a product from step to a base material or an article to be processed, which has a base layer, to obtain a molding material, and then subjecting the molding material to an injection molding process, wherein the injection molding process is performed at high temperature such that the transparent film is melted and stretched to fill the first and second lighting grooves (L1, L2, L1', L2'). joining a lower surface of a material layer and a hot-melt layer together; attaching a support tape for supporting an island to an upper surface of the material layer; forming a first lighting groove (L1, L2), through which light passes, by laser-etching a predetermined portion of the hot-melt layer and the material layer; forming a light-blocking layer on an upper surface of a transparent film through printing or painting; attaching a binder to a lower surface of the transparent film; forming a second lighting groove (L1', L2'), through which light passes, by laser-etching a predetermined portion of the light-blocking layer; combining a module resulting from step with a module resulting from step; replacing the support tape on the material layer with a fresh support tape; and obtaining an interior material by bonding a product from step to a base material or an article to be processed, which has a base layer, to obtain a molding material, and then subjecting the molding material to an injection molding process, wherein the injection molding process is performed at high temperature such that the transparent film is melted and stretched to fill the first and second lighting grooves (L1, L2, L1', L2').
A communication apparatus comprising: a first detection unit configured to detect a device type of another communication apparatus using a search signal conforming to IEEE 802.11 standard without connecting to a wireless network where the communication apparatus and the other communication apparatus communicate; a connection unit configured to execute a wireless connection process conforming to Wi-Fi Direct standard with the other communication apparatus having a certain device type detected by the first detection unit so as to communicate with the other communication apparatus on the wireless network using an Internet Protocol, IP, layer; a second detection unit configured to detect, using an M-Search message of the Simple Service Discovery Protocol in the IP layer a process type which indicates, from among services being executable by the other communication apparatus having the certain device type and being connected by the connection unit, a service provided by the other communication apparatus; and a controlling unit configured to perform, based on a result of the detection by the second detection unit, disconnecting of a wireless connection conforming to the Wi-Fi Direct standard with the other communication apparatus, or a process which relates to the process type with the other communication apparatus. a first detection unit configured to detect a device type of another communication apparatus using a search signal conforming to IEEE 802.11 standard without connecting to a wireless network where the communication apparatus and the other communication apparatus communicate; a connection unit configured to execute a wireless connection process conforming to Wi-Fi Direct standard with the other communication apparatus having a certain device type detected by the first detection unit so as to communicate with the other communication apparatus on the wireless network using an Internet Protocol, IP, layer; a second detection unit configured to detect, using an M-Search message of the Simple Service Discovery Protocol in the IP layer a process type which indicates, from among services being executable by the other communication apparatus having the certain device type and being connected by the connection unit, a service provided by the other communication apparatus; and a controlling unit configured to perform, based on a result of the detection by the second detection unit, disconnecting of a wireless connection conforming to the Wi-Fi Direct standard with the other communication apparatus, or a process which relates to the process type with the other communication apparatus.
A display device comprising: at least one display panel (110, 130); a frame positioned at a rear side of the at least one display panel and including an upper frame, which extends beyond an upper part of the at least one display panel so as to be exposed to the outside of the display device and which is suitable to be connected to be mounted on a ceiling; an opening (OP, OP1, OP2, OPU, OPD) in the frame, which opening is formed either by penetrating the frame or as a groove positioned between the at least one display panel and the frame; a printed circuit board, PCB, (SP, SP1, SP2) positioned in the opening; at least one controller (151, 152); a conducting member (FP, FP1, FP2) electrically connected to the PCB (SP, SP1, SP2) and the at least one display panel (110, 130) and extended from a side of the at least one display panel; and a cable (SC, SC1, SC2) electrically connected to the PCB (SP, SP1, SP2), placed between the at least one display panel (110, 130) and the frame, and electrically connected to the at least one controller (151, 152), characterised in that the at least one controller is installed on the upper frame of the frame. at least one display panel (110, 130); a frame positioned at a rear side of the at least one display panel and including an upper frame, which extends beyond an upper part of the at least one display panel so as to be exposed to the outside of the display device and which is suitable to be connected to be mounted on a ceiling; an opening (OP, OP1, OP2, OPU, OPD) in the frame, which opening is formed either by penetrating the frame or as a groove positioned between the at least one display panel and the frame; a printed circuit board, PCB, (SP, SP1, SP2) positioned in the opening; at least one controller (151, 152); a conducting member (FP, FP1, FP2) electrically connected to the PCB (SP, SP1, SP2) and the at least one display panel (110, 130) and extended from a side of the at least one display panel; and a cable (SC, SC1, SC2) electrically connected to the PCB (SP, SP1, SP2), placed between the at least one display panel (110, 130) and the frame, and electrically connected to the at least one controller (151, 152), characterised in that the at least one controller is installed on the upper frame of the frame.
An interaction method between resource and admission control systems, applied in a case that a mobile user equipment accesses a network at a fixed network side, deploys a service of the fixed network and interacts with a resource and admission control system of the mobile network through a resource and admission control system of the fixed network to realize policy control of the service, the method comprising: the resource and admission control system of the fixed network performing (603, 703), after receiving (602, 702) a resource request sent from an application function of the fixed network, an authorization check on the resource request, if the authorization check is passed, the resource and admission control system of the fixed network transmitting (604, 704) the resource request to the resource and admission control system of the mobile network to make the resource and admission control system of the mobile network perform (606, 705) another authorization check on the resource request; after the another authorization check on the resource request is passed, the resource and admission control system of the mobile network formulating (606, 705), in response to the resource request from the resource and admission control system of the fixed network, initial policy rules for the resource request, and transmitting (607, 706) the initial policy rules to the resource and admission control system of the fixed network; if both the authorization checks are passed, the resource and admission control system of the fixed network formulating (608, 707) final policy rules according to the initial policy rules, policy rules of a local operator of the fixed network and resource availability, and returning (611, 710) a resource response to the application function of the fixed network. the resource and admission control system of the fixed network performing (603, 703), after receiving (602, 702) a resource request sent from an application function of the fixed network, an authorization check on the resource request, if the authorization check is passed, the resource and admission control system of the fixed network transmitting (604, 704) the resource request to the resource and admission control system of the mobile network to make the resource and admission control system of the mobile network perform (606, 705) another authorization check on the resource request; after the another authorization check on the resource request is passed, the resource and admission control system of the mobile network formulating (606, 705), in response to the resource request from the resource and admission control system of the fixed network, initial policy rules for the resource request, and transmitting (607, 706) the initial policy rules to the resource and admission control system of the fixed network; if both the authorization checks are passed, the resource and admission control system of the fixed network formulating (608, 707) final policy rules according to the initial policy rules, policy rules of a local operator of the fixed network and resource availability, and returning (611, 710) a resource response to the application function of the fixed network.
A battery pack comprising: a plurality of battery modules stacked and arranged in parallel with each other and having electrode terminals formed at one sides thereof; flexible bus bars formed by stacking a plurality of thin plates, having bent parts formed at the center thereof, and having both sides connected to electrode terminals of neighboring battery modules; and fastening means coupled to the electrode terminals of the battery modules to electrically connect the flexible bus bars to the electrode terminals while fixing the flexible bus bars to the electrode terminals. a plurality of battery modules stacked and arranged in parallel with each other and having electrode terminals formed at one sides thereof; flexible bus bars formed by stacking a plurality of thin plates, having bent parts formed at the center thereof, and having both sides connected to electrode terminals of neighboring battery modules; and fastening means coupled to the electrode terminals of the battery modules to electrically connect the flexible bus bars to the electrode terminals while fixing the flexible bus bars to the electrode terminals.
A powder manufacturing apparatus comprising: a molten steel supply unit supplying molten steel; and a water ejection unit disposed below the molten steel supply unit and ejecting water to the molten steel supplied from the molten steel supply unit so as to atomize the molten steel, wherein the water ejection unit forms a first stream to cool and atomize the molten steel and a second stream to create a descending air current for the molten steel; wherein the water ejection unit comprises: a guide comprising a truncated cone part pointed downwards so that the molten steel flowing downwards from the molten steel supply unit passes through a center region of the truncated cone part; straight jet nozzles are pointed so that the water is ejected toward the truncated cone part of the guide; and a spiral groove is formed on a surface of the guide to induce the second stream which swirls downwards around the molten steel flowing downwards, wherein the straight jet nozzle is located above the truncated cone part of the guide and an angle between the jet nozzles and a vertical line is greater than an angle between a slope of the truncated cone part and the vertical line. a molten steel supply unit supplying molten steel; and a water ejection unit disposed below the molten steel supply unit and ejecting water to the molten steel supplied from the molten steel supply unit so as to atomize the molten steel, wherein the water ejection unit forms a first stream to cool and atomize the molten steel and a second stream to create a descending air current for the molten steel;
Arrangement for protecting an electrical facility from overvoltages with an overcurrent protection facility arranged in a first series circuit and a shunt circuit arranged between the overcurrent protection facility and the electrical facility to be protected, said shunt circuit leading to a second series circuit, wherein a diode for discharging transient overvoltages is arranged in the shunt circuit, said diode being designed here to be conductive, if a voltage threshold is exceeded, as a result of which the current resulting from the overvoltage can be passed through the shunt circuit to the facility to be protected into the second series circuit, wherein a first inductor is arranged in a series connection with the diode, in this way the diode with a first diode terminal is connected to the first series circuit and with a second diode terminal to the first inductor, whereby with temporary overvoltaqes the overcurrent protection facility is not triggered prematurely, characterised in that a second inductor is connected in the first series circuit between the shunt circuit and the electrical facility to be protected and in addition a capacitance connects the first and second series circuit (11, 12) between the second inductor and the electrical facility to be protected, wherein the first inductor is coupled to the second inductor such that the two inductors (L1, L2) interact magnetically with one another, wherein their sense of winding is arranged in the same direction, in this way a first start of winding of the first inductor is connected to the second diode terminal of the diode and a second start of winding of the second inductor is connected to the first diode terminal of the diode.
A method for manufacturing an epitaxial crystal substrate, comprising: preparing a substrate of a first compound semiconductor, the substrate having a step-terrace structure on the surface; growing a second compound semiconductor on the surface of the substrate by a step-flow process while varying the composition of the second compound semiconductor within the same terrace such that the lattice constant of the second compound semiconductor decreases stepwise to form a composition modulation layer consisting of stacked molecular layers consisting of a plurality of quantum wires having different lattice constants; and growing an epitaxial layer of a third compound semiconductor having a lattice constant different from a lattice constant of the first compound semiconductor on the composition modulation layer; wherein the substrate is an off-angle substrate having orientation that tilts depending on a lattice mismatch of the first compound semiconductor and the third compound semiconductor, wherein the composition modulation layer is deposited until steps in the step-terrace structure substantially disappear, wherein an off angle θ of the substrate is related to the lattice mismatch by (a epi -a sub)/a sub =(1-cosθ)/cosθ, in which a epi is a lattice parameter of the third compound semiconductor, and in which a sub is a lattice parameter of the first compounds semiconductor, wherein the third compound semiconductor has a lattice constant of substantially 1/cosθ a lattice constant of the substrate, and wherein the lattice mismatch is more than 0.1%. preparing a substrate of a first compound semiconductor, the substrate having a step-terrace structure on the surface; growing a second compound semiconductor on the surface of the substrate by a step-flow process while varying the composition of the second compound semiconductor within the same terrace such that the lattice constant of the second compound semiconductor decreases stepwise to form a composition modulation layer consisting of stacked molecular layers consisting of a plurality of quantum wires having different lattice constants; and growing an epitaxial layer of a third compound semiconductor having a lattice constant different from a lattice constant of the first compound semiconductor on the composition modulation layer; wherein the substrate is an off-angle substrate having orientation that tilts depending on a lattice mismatch of the first compound semiconductor and the third compound semiconductor, wherein the composition modulation layer is deposited until steps in the step-terrace structure substantially disappear, wherein an off angle θ of the substrate is related to the lattice mismatch by (a epi -a sub)/a sub =(1-cosθ)/cosθ, in which a epi is a lattice parameter of the third compound semiconductor, and in which a sub is a lattice parameter of the first compounds semiconductor, wherein the third compound semiconductor has a lattice constant of substantially 1/cosθ a lattice constant of the substrate, and wherein the lattice mismatch is more than 0.1%.
A method for controlling metal dendrite growth in an electrochemical cell comprising: coating an electrolytically permeable and electrically insulating membrane with a non-reactive metal coating; functionalizing the non-reactive metal coating to yield a functionalized non-reactive metal coating; positioning an electrolyte solution between an electrode and the functionalized non-reactive metal coating; introducing a lithium cation gradient from a metal electrode through the electrolytically permeable and electrically insulating membrane; electrically connecting the functionalized non-reactive metal coating to the electrode; immobilizing a portion of the lithium cations on the functionalized non-reactive metal coating to yield a dendrite seeding material; and promoting directional dendrite growth through the electrolyte solution from the electrode to the dendrite seeding material and from the dendrite seeding material to the electrode. coating an electrolytically permeable and electrically insulating membrane with a non-reactive metal coating; functionalizing the non-reactive metal coating to yield a functionalized non-reactive metal coating; positioning an electrolyte solution between an electrode and the functionalized non-reactive metal coating; introducing a lithium cation gradient from a metal electrode through the electrolytically permeable and electrically insulating membrane; electrically connecting the functionalized non-reactive metal coating to the electrode; immobilizing a portion of the lithium cations on the functionalized non-reactive metal coating to yield a dendrite seeding material; and promoting directional dendrite growth through the electrolyte solution from the electrode to the dendrite seeding material and from the dendrite seeding material to the electrode.
A method for selectively crystallizing Z isomer of a compound represented by the following formula comprising: a) dissolving crude compound of formula I or a concentrate thereof containing E and Z form isomers in an alcohol; b) heating the resulting alcohol solution at a temperature ranging from 80°C to 180°C for 6-48 hours; and c) cooling down to room temperature to obtain crystalline Z isomer of the compound of formula I: a) dissolving crude compound of formula I or a concentrate thereof containing E and Z form isomers in an alcohol; b) heating the resulting alcohol solution at a temperature ranging from 80°C to 180°C for 6-48 hours; and c) cooling down to room temperature
A squeeze-out device (1, 31) for driving out a highly viscous dental material, in particular a dental impression compound, from a cartridge system, the squeeze-out device (1, 31) having an actuator (3, 33), a motor (4, 34), a controller (14, 50), an operating device and at least one force sensor (15, 45), wherein at least one discharging plunger of the cartridge system is drivable by the actuator (3, 33), wherein the actuator (3, 33) is drivable by the motor (4, 34) or mechanically transmitted driving of the actuator (3, 33) is supportable by the motor (4, 34), wherein the operating device is manually operable, wherein the at least one force sensor (15, 45) is connected to the operating device such that at least the magnitude of a force acting on the operating device and/or at least the magnitude of a torque acting on the operating device is measurable, and wherein the motor (4, 34) is controllable by the controller (14, 50) depending on the measured magnitude of the force acting on the operating device and/or of the torque acting on the operating device, said magnitude being measured by the at least one force sensor (15, 45).