mhurhangee/ep-ind-claims huggingface dataset:
Motorized rotary pump having a terminal box which has electronic components, is fastened to the motor, and to which electric cables (6, 7) lead, a box-shaped plug being plugged releasably to the terminal box, which plug forms an inner clamping space, into which the electric cables are guided and in which they are connected, and a power supply cable and a signal cable which transmits signals as a control line being connected to the plug, characterized in that at least one separate contact block is inserted into the clamping space of the plug, to which contact block conductors of the power supply cable and the signal cable are fastened such that they make contact.
Apparatus comprising: a receptacle to support an electronic device; support legs connected to the receptacle and movable in a common plane between a first, retracted position and a second, extended position, and a coupling (50, 52, 54) that translates movement of one of the support legs between the positions to corresponding movement of at least another one of the support legs; the apparatus being characterised in that the receptacle inhibits insertion of the electronic device into the receptacle when the support legs are in the first, retracted position. a receptacle to support an electronic device; support legs connected to the receptacle and movable in a common plane between a first, retracted position and a second, extended position, and a coupling (50, 52, 54) that translates movement of one of the support legs between the positions to corresponding movement of at least another one of the support legs; the apparatus being characterised in that the receptacle inhibits insertion of the electronic device into the receptacle when the support legs are in the first, retracted position.
Processing machine for the layered production of three-dimensional components by irradiating a powder bed, comprising: a process chamber having a carrier plate for applying the powder bed, an irradiation device that has at least three scanner devices (8a-c) which are each designed to two-dimensionally deflect a laser beam (3a-c) onto one of three overlapping powder bed regions (9a-c) of the powder bed, wherein the first and preferably the second scanner device (8a, 8b) are arranged at a first distance from a processing plane of the processing machine, wherein the third scanner device is arranged at a second distance from the processing plane, which second distance is different from the first distance, wherein the three scanner devices (8a-c) for two-dimensionally deflecting the three laser beams (3a-c) each comprise a first scanner mirror (11a-c) having a first rotary drive (13a-c) for rotating the first scanner mirror (11a-c) about a first axis of rotation (D1a-c) and a second rotary drive (14a-c) for rotating a second scanner mirror (12a-c) about a second axis of rotation (D2a-c), wherein the axis of rotation (D2a) of the second scanner mirror of the first scanner device and the axis of rotation (D2b) of the second scanner mirror of the second scanner device are aligned in parallel with one another, and wherein the axis of rotation (D2c) of the second scanner mirror of the third scanner device is aligned perpendicularly to the axes of rotation (D2a, D2b) of the second scanner mirror (12a, 12b) of the first and the second scanner devices (8a, 8b). a process chamber having a carrier plate for applying the powder bed, an irradiation device that has at least three scanner devices (8a-c) which are each designed to two-dimensionally deflect a laser beam (3a-c) onto one of three overlapping powder bed regions (9a-c) of the powder bed, wherein the first and preferably the second scanner device (8a, 8b) are arranged at a first distance from a processing plane of the processing machine, wherein the third scanner device is arranged at a second distance from the processing plane, which second distance is different from the first distance, wherein the three scanner devices (8a-c) for two-dimensionally deflecting the three laser beams (3a-c) each comprise a first scanner mirror (11a-c) having a first rotary drive (13a-c) for rotating the first scanner mirror (11a-c) about a first axis of rotation (D1a-c) and a second rotary drive (14a-c) for rotating a second scanner mirror (12a-c) about a second axis of rotation (D2a-c), wherein the axis of rotation (D2a) of the second scanner mirror of the first scanner device and the axis of rotation (D2b) of the second scanner mirror of the second scanner device are aligned in parallel with one another, and wherein the axis of rotation (D2c) of the second scanner mirror of the third scanner device is aligned perpendicularly to the axes of rotation (D2a, D2b) of the second scanner mirror (12a, 12b) of the first and the second scanner devices (8a, 8b).
Method for operating a motor vehicle, wherein a user of the motor vehicle is authorised to trigger at least one function by means of a portable key device, and wherein the key device has an identification code which uniquely identifies the key device, and an authorisation data set which describes the at least one function, and is associated with the identification code, for which function the user is authorised by means of the key device identified by the identification code, having the steps carried out by a control device of the motor vehicle: - receiving the authorisation data set and the identification code from the key device (22, S6), - on the basis of an identification code of the key device stored in the control device and an authorisation data set which is stored in the control device and associated with the identification code, determining whether the received authorisation data set and the received identification code correspond to a predetermined combination, and - if they correspond to the predetermined combination, enabling the at least one function. - receiving the authorisation data set and the identification code from the key device (22, S6), - on the basis of an identification code of the key device stored in the control device and an authorisation data set which is stored in the control device and associated with the identification code, determining whether the received authorisation data set and the received identification code correspond to a predetermined combination, and - if they correspond to the predetermined combination, enabling the at least one function.
A modulated power supply stage including a filter for receiving a rectangular or stepped source voltage to be filtered and for providing an output voltage, the filter including an inductor (206 1) having an inductance value L1 and a capacitor (208 1) having a capacitance value C1, for removing frequency components at the switching frequency and the associated harmonics of the modulated power supply, wherein the filter is arranged such that the impedance of the inductor and capacitor is reduced by a factor n, such that the inductor has an inductance value L1/n and the capacitor has a capacitance value C1*n in order to reduce the output impedance of the filter, and wherein inductor is implemented as a plurality of resonant circuits respectively at the switching frequency and its odd harmonics, each of the resonant circuits comprising a parallel arrangement of an inductor (502 1, 502 2, 502 k), a capacitor (504 1, 504 2, 504 k) and a resistor (506 1, 506 2, 506 k), the inductance values of each inductor, combined, corresponding to L1/n, wherein the resonant circuits prevent the reduction of the input impedance of the inductor (206 1) and the capacitor (208 1).
An apparatus for preventing a light leakage from a light guide plate (310; 605; 700; 1130), the apparatus being characterized by comprising: a sensing unit to sense at least one side surface of a light guide plate; a dispenser (220; 330; 710) to discharge a reflective liquid material to the at least one side surface of the light guide plate to prevent light generated from a back light unit from leaking from the side surface of the light guide plate; a measuring unit to measure a processing error present in the at least one side surface of the light guide plate or whether the light guide plate is aligned with the dispenser; and a control unit to control the dispenser based on said measuring, said controlling including controlling an amount of the reflective liquid material to be discharged to the at least one side surface of the light guide plate, or controlling the relative location of the dispenser to the light guide plate. a sensing unit to sense at least one side surface of a light guide plate; a dispenser (220; 330; 710) to discharge a reflective liquid material to the at least one side surface of the light guide plate to prevent light generated from a back light unit from leaking from the side surface of the light guide plate; a measuring unit to measure a processing error present in the at least one side surface of the light guide plate or whether the light guide plate is aligned with the dispenser; and a control unit to control the dispenser based on said measuring, said controlling including controlling an amount of the reflective liquid material to be discharged to the at least one side surface of the light guide plate, or controlling the relative location of the dispenser to the light guide plate.
A method of wireless communication, comprising: determining, by a user equipment, UE, whether to configure the UE for a first type of resource sharing or a second type of resource sharing between a first radio access technology, RAT, and a second RAT, wherein one or more UE resources are configured for use with the first RAT; reconfiguring, by the UE, the one or more UE resources for use with the second RAT based at least in part on determining whether to configure the UE for the first type of resource sharing or the second type of resource sharing; and determining a plurality of performance parameters corresponding to a plurality of combinations of carriers and multiple-input multiple-output, MIMO, layers of the UE; wherein reconfiguring the one or more UE resources comprises reconfiguring the one or more UE resources based at least in part on the plurality of performance parameters. determining, by a user equipment, UE, whether to configure the UE for a first type of resource sharing or a second type of resource sharing between a first radio access technology, RAT, and a second RAT, wherein one or more UE resources are configured for use with the first RAT; reconfiguring, by the UE, the one or more UE resources for use with the second RAT based at least in part on determining whether to configure the UE for the first type of resource sharing or the second type of resource sharing; and determining a plurality of performance parameters corresponding to a plurality of combinations of carriers and multiple-input multiple-output, MIMO, layers of the UE; wherein reconfiguring the one or more UE resources comprises reconfiguring the one or more UE resources based at least in part on the plurality of performance parameters.
A material comprising at least four layers,, and in this order, wherein: the first (outer) layer has a thickness of 0.1 to 5 mm, preferably 0.2 to 3 mm, especially preferred 0.4 to 1.5 mm and comprises: - at least 10 weight percent, preferably at least 20 weight percent of at least one of an elastomer, a thermoplastic elastomer and a thermoplastic polymer; and - at least 30 weight percent, preferably at least 50 weight percent of at least one intumescent agent; the second layer comprises at least one scrim layer of fibrous material in woven or nonwoven form, preferably woven (fabric), acting as a reinforcement and interface between layer and the subsequent layer; the third layer has a thickness of 0.1 to 5 mm, preferably 0.2 to 3 mm, especially preferred 0.4 to 1.5 mm, and comprises: - at least one of an elastomer, a thermoplastic elastomer and a thermoplastic polymer and at least one of an intumescent agent and a char forming agent; or - a binder and a char forming agent; and the fourth (inner) layer is comprised of an elastomer or thermoplastic elastomer being expanded to a closed or open cell foam or sponge showing density of less than 300 kg/m 3, preferably less than 200 kg/m 3, especially preferred less than 150 kg/m 3 according to ISO 845, and with a thermal conductivity of less than 0.100 W/m*K at 0 °C, preferably less than 0.050 W/m*K at 0 °C according to EN 12667. the first (outer) layer has a thickness of 0.1 to 5 mm, preferably 0.2 to 3 mm, especially preferred 0.4 to 1.5 mm and comprises: - at least 10 weight percent, preferably at least 20 weight percent of at least one of an elastomer, a thermoplastic elastomer and a thermoplastic polymer; and - at least 30 weight percent, preferably at least 50 weight percent of at least one intumescent agent; - at least 10 weight percent, preferably at least 20 weight percent of at least one of an elastomer, a thermoplastic elastomer and a thermoplastic polymer; and - at least 30 weight percent, preferably at least 50 weight percent of at least one intumescent agent; the second layer comprises at least one scrim layer of fibrous material in woven or nonwoven form, preferably woven (fabric), acting as a reinforcement and interface between layer and the subsequent layer; the third layer has a thickness of 0.1 to 5 mm, preferably 0.2 to 3 mm, especially preferred 0.4 to 1.5 mm, and comprises: - at least one of an elastomer, a thermoplastic elastomer and a thermoplastic polymer and at least one of an intumescent agent and a char forming agent; or - a binder and a char forming agent; and - at least one of an elastomer, a thermoplastic elastomer and a thermoplastic polymer and at least one of an intumescent agent and a char forming agent; or - a binder and a char forming agent; and the fourth (inner) layer is comprised of an elastomer or thermoplastic elastomer being expanded to a closed or open cell foam or sponge showing density of less than 300 kg/m 3, preferably less than 200 kg/m 3, especially preferred less than 150 kg/m 3 according to ISO 845, and with a thermal conductivity of less than 0.100 W/m*K at 0 °C, preferably less than 0.050 W/m*K at 0 °C according to EN 12667.
In vitro process for preparing a micro hair follicle, comprising at least one step of culturing the germ cells located in the bulge of a hair follicle in the telogen phase in the presence of an effective amount of a ROCK inhibitor for a period of time sufficient to allow differentiation of said cells into keratinocytes positive for the CD200, CD29 and K15 markers, said keratinocytes positive for the CD200, CD29 and K15 markers being brought into contact with the connective tissue sheath fibroblasts and/or the dermal papilla fibroblasts.
Nasal pillow mask comprising a mask body comprising a central opening and an outer surface, a flexible nasal cushion comprising a pair of hollow nasal prong, said nasal cushion being detachably coupled to the mask body, and a poka-yoke coupling system (12, 25) comprising at least: - a finger element arranged on the nasal cushion, said finger element comprising a free end with a hook structure, and - a lodging traversing the mask body and comprising an exit orifice, wherein the hook structure of the finger element cooperates with the outer surface of the mask body, when the finger element is inserted into the lodging, for retaining the nasal cushion integrally coupled to the mask body, characterized in that the nasal pillow mask further comprises a magnetic connecting system (2, 3) for detachably securing the flexible nasal cushion to the mask body. - a finger element arranged on the nasal cushion, said finger element comprising a free end with a hook structure, and - a lodging traversing the mask body and comprising an exit orifice, wherein the hook structure of the finger element cooperates with the outer surface of the mask body, when the finger element is inserted into the lodging, for retaining the nasal cushion integrally coupled to the mask body, characterized in that the nasal pillow mask further comprises a magnetic connecting system (2, 3) for detachably securing the flexible nasal cushion to the mask body.
A welding method comprising: establishing an arc between a welding electrode and a workpiece; feeding the electrode from a welding torch while cyclically moving the electrode in a desired pattern; and advancing the welding torch or the workpiece to establish a weld bead the welding electrode being a metal cored welding electrode comprising a sheath and a core; characterized in that said electrode is moved by a motion control assembly within the welding torch to maintain an arc only between the sheath and the workpiece, wherein the arc is established and maintained via a pulsed welding process, wherein at least one parameter of the pulsed welding process is controlled in coordination with movement of the electrode, synchronizing movement of the metal cored electrode with a pulsed waveform, wherein the rates of movement of the electrode being at least 100 Hz. establishing an arc between a welding electrode and a workpiece; feeding the electrode from a welding torch while cyclically moving the electrode in a desired pattern; and advancing the welding torch or the workpiece to establish a weld bead the welding electrode being a metal cored welding electrode comprising a sheath and a core; characterized in that said electrode is moved by a motion control assembly within the welding torch to maintain an arc only between the sheath and the workpiece, wherein the arc is established and maintained via a pulsed welding process, wherein at least one parameter of the pulsed welding process is controlled in coordination with movement of the electrode, synchronizing movement of the metal cored electrode with a pulsed waveform, wherein the rates of movement of the electrode being at least 100 Hz.
A serum cholesterol lowering agent or preventive or therapeutic agent for atherosclerosis consisting of the combination of a compound represented by the following chemical formula or a pharmaceutically acceptable salt thereof and a cholesterol biosynthesis inhibitor and/or a fibrate-type cholesterol lowering agent, wherein said cholesterol biosynthesis inhibitor is at least one HGM CoA reductase inhibitor selected from the group consisting of atorvastatin and rosuvastatin, and said fibrate-type cholesterol lowering agent is fenofibrate.
A method of operating a node of a network, the network comprising the node, a parent of the node, and at least one descendent of the node, the method comprising: receiving at the node a data frame having a header with multiple addresses comprising a first address which is a receive address and a second address which is a transmit address; determining at the node if the second address of the multiple addresses is an address of the parent of the node; changing at the node the second address to an address of the node in response to the determining; and transmitting at the node the data frame to the at least one descendant of the node. receiving at the node a data frame having a header with multiple addresses comprising a first address which is a receive address and a second address which is a transmit address; determining at the node if the second address of the multiple addresses is an address of the parent of the node; changing at the node the second address to an address of the node in response to the determining; and transmitting at the node the data frame to the at least one descendant of the node.
An image display apparatus having a display part that is arranged on a mount body which is mounted on a head of a user, the display part being configured for displaying an information image, the image display apparatus comprising: a detection part that detects a tilt of a head of the user; a control part that sets a virtual horizon based on the tilt which is detected by the detection part and that sets a non-display region (A1, A2) having a band shape which is parallel to the virtual horizon; and a speed detection part that detects a movement speed, wherein the non-display region is a region between a first boundary line that is provided by a first distance in an upper direction from and in parallel with the virtual horizon and a second boundary line that is provided by a second distance in a lower direction from and in parallel with the virtual horizon, wherein the control part changes a relationship between the first distance and the second distance in accordance with the movement speed that is detected by the speed detection part, and wherein, when the information image and the region that is set as the non-display region (A1, A2) are overlapped with each other, the control part erases the information image or the control part shrinks the information image to a size in which the information image is not overlapped with the non-display region and displays the shrunk information image. a detection part that detects a tilt of a head of the user; a control part that sets a virtual horizon based on the tilt which is detected by the detection part and that sets a non-display region (A1, A2) having a band shape which is parallel to the virtual horizon; and a speed detection part that detects a movement speed, wherein the non-display region is a region between a first boundary line that is provided by a first distance in an upper direction from and in parallel with the virtual horizon and a second boundary line that is provided by a second distance in a lower direction from and in parallel with the virtual horizon, wherein the control part changes a relationship between the first distance and the second distance in accordance with the movement speed that is detected by the speed detection part, and wherein, when the information image and the region that is set as the non-display region (A1, A2) are overlapped with each other, the control part erases the information image or the control part shrinks the information image to a size in which the information image is not overlapped with the non-display region and displays the shrunk information image.
Particle filter comprising a wall-flow filter of length L and two different coatings Y and Z, wherein the wall-flow filter comprises channels E and A which extend in parallel between a first end and a second end of the wall-flow filter and which are separated by porous walls forming surfaces O E or O A, and wherein the channels E at the second end and the channels A at the first end are closed, characterized in that coating Y is located in the channels E on the surfaces O E and extends from the first end of the wall-flow filter over 57 to 65% of the length L and contains aluminum oxide in an amount of 35 to 60 wt% relative to the total weight of the coating Y; palladium, rhodium, or palladium and rhodium; and an oxygen storage component in an amount of 40 to 50 wt% relative to the total weight of the coating Y, wherein the oxygen storage component comprises zirconium oxide, cerium oxide, lanthanum oxide, and yttrium oxide; and that coating Z is located in the channels A on the surfaces O A and extends from the second end of the wall-flow filter over 57 to 65% of the length L and contains aluminum oxide in an amount of 25 to 50 wt% relative to the total weight of the coating; palladium, rhodium, or palladium and rhodium; and oxygen storage components in a total amount of from 50 to 80 wt% relative to the total weight of the coating Z, wherein one oxygen storage component contains zirconium oxide, cerium oxide, lanthanum oxide, and yttrium oxide, and another contains zirconium oxide, cerium oxide, lanthanum oxide, and praseodymium oxide.