mhurhangee/ep-ind-claims huggingface dataset:
A communication device, comprising: a ground element, comprising a main ground plane and a protruded ground plane, the main ground plane and the protruded ground plane substantially form an L-shape and the protruded ground plane has a specific edge; and an antenna system, comprising: a first antenna, comprising a metal radiation element, and being adjacent the main ground plane and the protruded ground plane; and a second antenna, being an open slot antenna, that is formed in the protruded ground plane, the second antenna has an open end and a closed end, the open end being disposed at the specific edge of the protruded ground plane, and the specific edge is arranged opposite to the edge of the protruded ground plane adjacent the first antenna, characterized in that the open slot antenna substantially has a U-shape. a ground element, comprising a main ground plane and a protruded ground plane, the main ground plane and the protruded ground plane substantially form an L-shape and the protruded ground plane has a specific edge; and an antenna system, comprising: a first antenna, comprising a metal radiation element, and being adjacent the main ground plane and the protruded ground plane; and a second antenna, being an open slot antenna, that is formed in the protruded ground plane, the second antenna has an open end and a closed end, the open end being disposed at the specific edge of the protruded ground plane, and the specific edge is arranged opposite to the edge of the protruded ground plane adjacent the first antenna, characterized in that the open slot antenna substantially has a U-shape. a first antenna, comprising a metal radiation element, and being adjacent the main ground plane and the protruded ground plane; and a second antenna, being an open slot antenna, that is formed in the protruded ground plane, the second antenna has an open end and a closed end, the open end being disposed at the specific edge of the protruded ground plane, and the specific edge is arranged opposite to the edge of the protruded ground plane adjacent the first antenna, characterized in that the open slot antenna substantially has a U-shape.
A method for monitoring a radio link on a small cell in a wireless communication system, wherein a User Equipment, in the following also referred to as UE, is served by a first cell controlled by a first evolved Node B, in the following also referred to as eNB, comprising: the UE receives a Radio Resource Control, in the following also referred to as RRC, message for configuring a second cell to the UE; and the UE transmits a complete message in response to the RRC message for configuring the second cell; characterized by: the UE monitors a radio link with the second cell and reports a radio link failure to the first eNB when the radio link failure is detected on the second cell, if the second cell is controlled by a second eNB, and the UE does not monitor the radio link with the second cell and does not report the radio link failure to the first eNB if the second cell is controlled by the first eNB. the UE receives a Radio Resource Control, in the following also referred to as RRC, message for configuring a second cell to the UE; and the UE transmits a complete message in response to the RRC message for configuring the second cell;
A method of applying a radiopaque marker to a cannula for use with an intracardiac pump, the method comprising: obtaining a band of radiopaque polymer material; placing the band around an outer diameter of the cannula, the cannula comprising a flexible tubular wall formed around and supported by a coil of shape memory material; placing a heat shrink tube around the band and the cannula; heating the band and the polymer tube to: soften the band; cause the heat shrink tube to shrink and apply force on the softened band towards the cannula; and cause the softened band to be welded to the cannula to form a radiopaque marker in a portion of the tubular wall; and removing the heat shrink tube. obtaining a band of radiopaque polymer material; placing the band around an outer diameter of the cannula, the cannula comprising a flexible tubular wall formed around and supported by a coil of shape memory material; placing a heat shrink tube around the band and the cannula; heating the band and the polymer tube to: soften the band; cause the heat shrink tube to shrink and apply force on the softened band towards the cannula; and cause the softened band to be welded to the cannula to form a radiopaque marker in a portion of the tubular wall; and removing the heat shrink tube. soften the band; cause the heat shrink tube to shrink and apply force on the softened band towards the cannula; and cause the softened band to be welded to the cannula to form a radiopaque marker in a portion of the tubular wall; and removing the heat shrink tube.
Electric power assisted steering device for motor vehicles having an angle of rotation sensor arrangement for detecting the position of the steering movement, wherein it contains a supporting plate rotating relative or corresponding to the steering movement and having at least one code track and a fixed sensor acting on the code track, wherein the code track is arranged in a circle around the rotational axis of the supporting plate and has markings for producing a successively changing '1'/'0' bit pattern and the 360° of the circumference divided by the number of the markings on the circumference defines a clock-pulse angle (ß), characterised in that the markings, apart from some predefined positions, change from '1' to '0' at precisely equidistant angular distances, and in that respective selected markings are applied to the supporting plate with an offset in relation to the fixed division of the clock-pulse angle (ß), whereby the '1'/'0' bit pattern changes with a delay in relation to the clock-pulse angle (ß), and in that the next change of the marking is not arranged offset in relation to the fixed division of the clock-pulse angle (ß), whereby a specific pattern is formed, in which only one single sensor is assigned to one single code track.
Electronic smoking device, comprising: - a main body including a battery; - a mouthpiece portion including an atomizer, wherein the main body and the mouthpiece portion are detachable from each other, wherein when attached the main body and the mouthpiece form a shell surrounding a main axis; - a first electrical connection element provided on the main body and electrically connected to the battery; - a second electrical connection element provided on the mouthpiece portion and electrically connected to the atomizer; wherein either the first electrical or the second electrical connection element comprises two connector arms (46, 48) extending parallel to the main axis and each having a contact portion projecting inwards towards the main axis and the other of the first and second electrical connection element comprises at least one recess (54, 60) adapted to receive a contact portion such that a snap-in locking connection is provided characterized in that the contact portions of the connector arms (46, 48) are spaced apart in a direction along the main axis. - a main body including a battery; - a mouthpiece portion including an atomizer, wherein the main body and the mouthpiece portion are detachable from each other, wherein when attached the main body and the mouthpiece form a shell surrounding a main axis; - a first electrical connection element provided on the main body and electrically connected to the battery; - a second electrical connection element provided on the mouthpiece portion and electrically connected to the atomizer;
Glass flakes each consisting of a glass flake substrate and a coating layer coating the surface of the glass flake substrate, wherein: the glass flake substrates have an average thickness of 0.1 to 1.0 μm, and an average particle size of 1 to 100 μm; the coating layer is formed of methyl hydrogen silicone; and the content percentage of the coating layer is 0.05 to 2.50 mass% as determined by subjecting said glass flakes to drying at 110 ± 5° C for at least 60 minutes followed by ignition at 625 ± 20° C for at least 15 minutes, and then determining the mass reduction of the glass flakes due to this ignition so that the percentage of the loss from the mass of the glass flakes before ignition is calculated. a glass flake substrate and a coating layer coating the surface of the glass flake substrate, wherein: the glass flake substrates have an average thickness of 0.1 to 1.0 μm, and an average particle size of 1 to 100 μm; the coating layer is formed of methyl hydrogen silicone; and the content percentage of the coating layer is 0.05 to 2.50 mass% as determined by subjecting said glass flakes to drying at 110 ± 5° C for at least 60 minutes followed by ignition at 625 ± 20° C for at least 15 minutes, and then determining the mass reduction of the glass flakes due to this ignition so that the percentage of the loss from the mass of the glass flakes before ignition is calculated. the glass flake substrates have an average thickness of 0.1 to 1.0 μm, and an average particle size of 1 to 100 μm; the coating layer is formed of methyl hydrogen silicone; and the content percentage of the coating layer is 0.05 to 2.50 mass% as determined by subjecting said glass flakes to drying at 110 ± 5° C for at least 60 minutes followed by ignition at 625 ± 20° C for at least 15 minutes, and then determining the mass reduction of the glass flakes due to this ignition so that the percentage of the loss from the mass of the glass flakes before ignition is calculated.
A radio frequency communication system to facilitate communication between a wireless terminal and a core network, the system comprising: a remote radio unit, RRU, coupled to at least one antenna to communicate with the wireless terminal, the RRU comprising electronic circuitry to perform at least a first portion of a physical layer protocol of a radio access network, RAN, for communicating between the wireless terminal and the core network; and a baseband unit, BBU, coupled to the core network, and configured to perform at least a data link layer protocol of the RAN; and a fronthaul link coupled to the BBU and the RRU and utilizing an adaptive fronthaul protocol for communication between the BBU and the RRU, wherein the BBU is further configured to: determine a latency for the fronthaul link; and bypass at least one function of the data link layer protocol based on the determined latency and a response time requirement of the RAN protocol; wherein the adaptive fronthaul protocol: adapts to changes in the fronthaul link, a radio signal received by the RRU, or a load from the wireless terminal coupled to the RRU; and utilizes a packet-based protocol with non-guaranteed packet delivery. a remote radio unit, RRU, coupled to at least one antenna to communicate with the wireless terminal, the RRU comprising electronic circuitry to perform at least a first portion of a physical layer protocol of a radio access network, RAN, for communicating between the wireless terminal and the core network; and a baseband unit, BBU, coupled to the core network, and configured to perform at least a data link layer protocol of the RAN; and a fronthaul link coupled to the BBU and the RRU and utilizing an adaptive fronthaul protocol for communication between the BBU and the RRU, wherein the BBU is further configured to: determine a latency for the fronthaul link; and bypass at least one function of the data link layer protocol based on the determined latency and a response time requirement of the RAN protocol; determine a latency for the fronthaul link; and bypass at least one function of the data link layer protocol based on the determined latency and a response time requirement of the RAN protocol; wherein the adaptive fronthaul protocol: adapts to changes in the fronthaul link, a radio signal received by the RRU, or a load from the wireless terminal coupled to the RRU; and utilizes a packet-based protocol with non-guaranteed packet delivery. adapts to changes in the fronthaul link, a radio signal received by the RRU, or a load from the wireless terminal coupled to the RRU; and utilizes a packet-based protocol with non-guaranteed packet delivery.
A crushing device, comprising at least one crushing roll rotatably mounted in a machine frame, comprising at least one crushing tool arranged thereon and comprising at least one counter-blade working together with the crushing tool and having at least one sieve device for the crushed material, the housing of which at least partially surrounds the crushing roll, wherein the sieve device and counter-blade form a common assembly, wherein the counter-blade is plate-shaped and has recesses (3/5) which are formed corresponding to the shape of the crushing tools of the crushing device, wherein the counter-blade is formed from a plurality of individual counter-blades (3/3), which are fastened individually to the sieve device, wherein individual counter-blades (3/3) form a comb plate, wherein the individual counter-blades (3/3) can be fixed to and/or on a lower body (3/4) by fastening means, wherein a screw is provided as fastening means, which is guided through a bore (3/5) in the lower body (3/4), wherein a bore is provided in the individual counter-blade (3/3), which is arranged corresponding to the bore (3/5), characterized in that the counter-blades (3/3) on the lower body (3/4) are hinged and in that the counter-blades (3/3) can be placed approximately perpendicular in the lower body (3/4) and can then be pivoted downward, whereby they can be partially locked to the lower body (3/4).
A control method of a washing machine comprising the steps of: (a) setting a present washing pattern in consideration of the hardness of the water calculated and stored in the previous operation of the washing machine (S1-S15); (b) operating the washing machine based on the set present washing pattern (S16-S34); and (c) calculating and storing the hardness of the water in the present operation of the washing machine for setting a next washing pattern for the next operation of the washing machine (S29-S31, S31', S31", S31"'), characterized in that the step (a) includes: sensing the quantity of clothes after instructions for operating the washing machine are inputted to the washing machine, and setting the present washing pattern further based on the sensed quantity of clothes; supplying water based on the present washing pattern set in step, and dissolving a detergent in the water (S8-S11); and measuring conductivity and temperature of the water containing the detergent, calculating the quantity of the detergent in consideration of the hardness of the water calculated and stored in the previous operation of the washing machine, and resetting the washing pattern based on the calculated quantity of the detergent, wherein the step (b) includes: performing a washing or rinsing operation based on the reset washing pattern, wherein calculating and storing the hardness of the water in the step (c) is performed during a final rising operation (S29-S31). (a) setting a present washing pattern in consideration of the hardness of the water calculated and stored in the previous operation of the washing machine (S1-S15); (b) operating the washing machine based on the set present washing pattern (S16-S34); and (c) calculating and storing the hardness of the water in the present operation of the washing machine for setting a next washing pattern for the next operation of the washing machine (S29-S31, S31', S31", S31"'), sensing the quantity of clothes after instructions for operating the washing machine are inputted to the washing machine, and setting the present washing pattern further based on the sensed quantity of clothes; supplying water based on the present washing pattern set in step, and dissolving a detergent in the water (S8-S11); and measuring conductivity and temperature of the water containing the detergent, calculating the quantity of the detergent in consideration of the hardness of the water calculated and stored in the previous operation of the washing machine, and resetting the washing pattern based on the calculated quantity of the detergent, performing a washing or rinsing operation based on the reset washing pattern,
A method of producing a motor core, comprising: preparing a soft magnetic plate containing a transition metal element; preparing modifying members containing an alloy having a melting point lower than a melting point of the soft magnetic plate; bringing each modifying member into contact with a part of a plate surface of the soft magnetic plate at a predetermined position; causing each modifying member to diffuse and penetrate into the soft magnetic plate from a contact surface between the soft magnetic plate and the modifying member, and forming a hard magnetic phase-containing part in a part of the soft magnetic plate at each, predetermined position; and laminating a plurality of soft magnetic plates on each other after the modifying members are brought into contact with the parts of the plate surface of the soft magnetic plate. preparing a soft magnetic plate containing a transition metal element; preparing modifying members containing an alloy having a melting point lower than a melting point of the soft magnetic plate; bringing each modifying member into contact with a part of a plate surface of the soft magnetic plate at a predetermined position; causing each modifying member to diffuse and penetrate into the soft magnetic plate from a contact surface between the soft magnetic plate and the modifying member, and forming a hard magnetic phase-containing part in a part of the soft magnetic plate at each, predetermined position; and laminating a plurality of soft magnetic plates on each other after the modifying members are brought into contact with the parts of the plate surface of the soft magnetic plate.
A supply device for supplying fuel at a regulated flow rate to a gas turbine engine, the device comprising: • a pipe for supplying fuel to the engine; • a pump connected to the supply pipe and delivering it with fuel at a pressure that is a function of engine speed; • a flow rate measuring device for measuring the fuel flow rate in the supply pipe; • a first controlled variable-restriction valve connected in the supply pipe; • a first control circuit (15, 132, 125-125') connected to the flow rate measurement device and to the first valve to control the valve to deliver a regulated desired fuel flow rate under normal operating conditions of the engine; • a second valve mounted in the supply pipe in series with the first valve; and • a second control circuit (15, 135-135') connected to the second valve to act on it in response to detecting over-speed or over-thrust of the engine, Characterized in that the second valve is a controlled variable restriction valve and the second control circuit (15, 135-135') is configured to control a reduction of the flow rate of fuel in the supply pipe and to adjust the flow rate of fuel in at least a reduced range, thus conserving a controllability of the engine after over-speed or over-thrust detection. • a pipe for supplying fuel to the engine; • a pump connected to the supply pipe and delivering it with fuel at a pressure that is a function of engine speed; • a flow rate measuring device for measuring the fuel flow rate in the supply pipe; • a first controlled variable-restriction valve connected in the supply pipe; • a first control circuit (15, 132, 125-125') connected to the flow rate measurement device and to the first valve to control the valve to deliver a regulated desired fuel flow rate under normal operating conditions of the engine; • a second valve mounted in the supply pipe in series with the first valve; and • a second control circuit (15, 135-135') connected to the second valve to act on it in response to detecting over-speed or over-thrust of the engine, Characterized in that the second valve is a controlled variable restriction valve and the second control circuit (15, 135-135') is configured to control a reduction of the flow rate of fuel in the supply pipe and to adjust the flow rate of fuel in at least a reduced range, thus conserving a controllability of the engine after over-speed or over-thrust detection.
A drive device, having an electric motor and a gear unit driven by the electric motor, wherein the gear unit has a first and a second housing part (1, 2), wherein the electric motor has a laminated stator core with stator windings which is received in a stator housing, wherein the stator housing and also the first and the second housing part (1, 2) is surrounded, in particular is radially surrounded, by a housing, in particular tubular housing and/or pot-shaped housing, of the drive device, wherein the housing is spaced apart from the stator housing, wherein a circulating air stream can be formed within the housing, wherein the second housing part has at least one pocket-shaped depression on its surface, past which the air stream or at least part of the air stream flows, such that dirt and/or dust from the air stream or part of the air stream can be deposited in the pocket-shaped depression in the second housing part, wherein a connecting element, in particular a screw, connects the first housing part to the second housing part and the spatial region required for actuating the connecting element with a tool is formed and/or is provided by means of the depression, in particular wherein the tool engages at least partially into or around the connecting element and can be actuated from the surroundings, so that the pocket-shaped depression is formed open towards the inner spatial region encompassed by the housing, wherein the stator housing has cutouts which are continuous axially, i.e. in the axial direction of the rotor shaft, wherein the cutouts lead the air stream through in the axial direction and the air stream is returned in the opposite direction in the spaced-apart region between the stator housing part and housing, characterised in that the air stream from the cutouts in the stator housing flows through respective cutouts in the second housing part, which are limited at least partially by ribs protruding out on the second housing part, wherein the stator housing on its side remote from the gear unit is connected to the housing by way of a bearing flange, wherein the bearing flange has an in particular circular baseplate portion, and a partition portion arranged thereon, wherein the partition portion is provided to separate the air stream from a spatial region which surrounds the axial end region of the rotor shaft which is remote from the gear unit, or at least partially surrounds an angular sensor arranged on this end region, wherein the partition portion in a first angle-at-circumference direction is radially less extended than in a second angle-at-circumference direction different from the first, wherein the stator housing is manufactured from a second material and the housing from a first material, wherein the first material has a greater thermal conductivity than the second material.