mhurhangee/ep-ind-claims huggingface dataset:
An antenna configured to conform to a transparent surface, said antenna comprising at least one electrically conductive wire (120, 120') extending along said surface and being characterized in that a transverse section of said at least one electrically conductive wire has a height (h) in a direction orthogonal to said surface at least five times greater than a width (w) in a direction parallel to said surface and where said at least one electrically conductive wire is in contact with a second transparent medium with an optical index n 2 ≥ 1 at at least one second contact area extending at least partially perpendicular to said surface, the second transparent medium being in contact with a first transparent medium (200, 200') with an optical index n 1 > n 2 at at least one first contact area extending at least partially perpendicular to said surface, said first and second contact areas each having at least one region (370, 370') facing each other. the second transparent medium being in contact with a first transparent medium (200, 200') with an optical index n 1 > n 2 at at least one first contact area extending at least partially perpendicular to said surface, said first and second contact areas each having at least one region (370, 370') facing each other.
A mirror adjustment device with a pivot for relative adjustment of a mirror housing and a mirror foot (1") which are coupled to each other via the pivot in a manner rotatable relative to each other, which mirror adjustment device comprises: - a housing comprising a bearing part; - an electric motor; - a worm gear assembly for transmitting rotation of the electric motor to the pivot, the worm gear assembly being provided with a worm shaft having thereon a worm part and a worm gear part (6"), the bearing part forming an axial bearing surface of the worm shaft, the worm gear (6") being connected to the pivot; characterized in that the worm gear assembly is provided with a resilient element having the shape of a sickle in that it comprises successively an axial part and a curved part, at least a part of the axial part or an end of the curved part being fixedly connected with the bearing part, and opposite ends (6a,b) of the worm shaft are clamped between ends (10a, b) of the resilient element at the axial part and the curved part. - a housing comprising a bearing part; - an electric motor; - a worm gear assembly for transmitting rotation of the electric motor to the pivot, the worm gear assembly being provided with a worm shaft having thereon a worm part and a worm gear part (6"), the bearing part forming an axial bearing surface of the worm shaft, the worm gear (6") being connected to the pivot; characterized in that the worm gear assembly is provided with a resilient element having the shape of a sickle in that it comprises successively an axial part and a curved part, at least a part of the axial part or an end of the curved part being fixedly connected with the bearing part, and opposite ends (6a,b) of the worm shaft are clamped between ends (10a, b) of the resilient element at the axial part and the curved part.
A method for calibrating sensors for detecting a substance in a fluid, wherein the sensors are integrated on semiconductor chips, said method characterized by the steps of exposing a semiconductor wafer comprising a plurality of said sensors to a fluid with an amount of said substance and performing calibration measurements on the sensors on the wafer while said wafer is exposed to said fluid.
A shackle assembly, comprising a shackle body, a shackle pin and a pin displacement mechanism for moving the shackle pin along its centreline between a shackle closed position and a shackle open position, wherein the pin displacement mechanism comprises a rotation element which is mounted to the shackle body and rotatable with respect to the shackle body about an axis of rotation which extends perpendicularly to the centreline of the shackle pin and a transmission (8, 9, 11, 12, 14, 15) between the rotation element and the shackle pin for transmitting a rotation of the rotation element to a displacement of the shackle pin along its centreline, characterized in that the rotation element and the transmission form part of a four-bar linkage, wherein the rotation element comprises a first bar which is pivotally coupled to a second bar through a first journal, which second bar is pivotally coupled to a third bar through a second journal remote from the first journal, which third bar is rotatably coupled to the shackle body remote from the second journal, wherein the shackle body forms a fourth bar, wherein the second bar is rotatably coupled to the shackle pin through a pin pivot, wherein the pin pivot lies at a distance from the first and second journals (11, 12), and wherein the bars and the journals are dimensioned and arranged such that the pin pivot is movable in the same direction as the direction of the centreline of the shackle pin.
Cold-rolled carbon steel, in particular carbon steel C80 or C80S with (in % by weight) C 0.63 - 0.85% Si max. 0.40% Mn 0.20 - 0.90% P max. 0.035% S max. 0.035% Al max. 0.060% Cr max. 0.40% N 0.003 - 0.010%, preferably 0.005 - 0.008% at least one microalloying element choosen from Ti, Nb, V and Zr with a total maximum content of 0.12%, with a minimum content of titan Ti of 0,02 % and/or Niob Nb of 0,02 % and/or vanadium V of 0,02 % and/or zirconium Zr of 0,02 %, residual iron and impurities caused by melting, wherein the thickness of the carbon steel is in a thickness range between 0,10 and 0,19 mm of band thickness and the carbon steel has a tensile strength after cold-rolling in the range of 2400-3000 MPa. C 0.63 - 0.85% Si max. 0.40% Mn 0.20 - 0.90% P max. 0.035% S max. 0.035% Al max. 0.060% Cr max. 0.40% N 0.003 - 0.010%, preferably 0.005 - 0.008% at least one microalloying element choosen from Ti, Nb, V and Zr with a total maximum content of 0.12%, with a minimum content of titan Ti of 0,02 % and/or Niob Nb of 0,02 % and/or vanadium V of 0,02 % and/or zirconium Zr of 0,02 %, residual iron and impurities caused by melting, wherein the thickness of the carbon steel is in a thickness range between 0,10 and 0,19 mm of band thickness and the carbon steel has a tensile strength after cold-rolling in the range of 2400-3000 MPa.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, message including configuration information related to at least one bandwidth part and subcarrier spacing for each of the at least one bandwidth part; receiving, from the base station, downlink control information, DCI, indicating an active bandwidth part from the at least one bandwidth part; receiving, from the base station, data based on the active bandwidth part; starting a timer associated with the active bandwidth part; and switching from the active bandwidth part to a default bandwidth part in case that the timer expires. receiving, from a base station, a radio resource control, RRC, message including configuration information related to at least one bandwidth part and subcarrier spacing for each of the at least one bandwidth part; receiving, from the base station, downlink control information, DCI, indicating an active bandwidth part from the at least one bandwidth part; receiving, from the base station, data based on the active bandwidth part; starting a timer associated with the active bandwidth part; and switching from the active bandwidth part to a default bandwidth part in case that the timer expires.
A data reconstruction method for reconstructing data sent from at least one connected object (11 to 14) to an addressee (21 to 23) via a transmission architecture consisting of at least one low-rate network, access to which is governed by metadata, and comprising the following successive steps of processing said data in bottom transmission layers of the architecture: encoding of the data as messages and initial division of each message into segments (C; Cu; C1 to C5; C1,..., Ci,..., Cz) positioned according to a first segment (C1; Cu) followed, where applicable, by a series of intermediate segments (C2 to C4; Ci), and a last segment (C5; Cz); encapsulation of each segment (C; C1 to C5; C1,..., Ci,..., Cz) in a packet (D; D1 to D5) provided with a header; routeing of the packets (D; D1 to D5) via base stations in at least one network in the architecture, and reconstruction of each message from the packets received (D; D1 to D5) and then transmission of each reconstituted message to the addressee, this method being characterised in that the reconstruction of each message is based on initial segmentation information (Is; P1, P2; I D, dTi, dTz; dT0, dT1, dTi, dTz) on each segment (C; Cu; C1 to C5; C1,..., Ci,..., Cz) supplied during the division of each message, in coordination with subsequent validation of sequencing (170, 180) of the intermediate segments (Ci; C2 to C4) carried out before transmission to the addressee (21 to 23), the initial segmentation information (Is; P1, P2; I D, dTi, dTz; dT0, dT1, dTi, dTz) determining an absence of positioning in the case of a single segment (Cu), and positionings of first segment, intermediate segment (Ci, C2 to C4) where applicable and last segment (Cz; C5) in the case of division into at least two segments, and the subsequent validation of sequencing (170, 180) of the intermediate segments (Ci; C2 to C4) of the messages of more than three segments composed of a verification of conformity to their initial order and, where applicable, resequencing according to this initial order, from data extracted from the architecture in relation to each transmission of packets (D; D1 to D5).
A switching device for switching a current between a first connection and a second connection, comprising a series connection of at least two JFETs (J 1 -J 6), of which a lowermost JFET (J 1) is connected to the first connection or the lowermost JFET (J 1) is connected in a cascode circuit via a control switch to the first connection, and at least one further JFET (J 2 -J 6) which is connected in series to the lowermost JFET (J 1), wherein the JFET (J 6) which is distanced furthest from the lowermost JEFT (J 1) is indicated as the uppermost JFET (J 6) and with its drain connection is connected to the second connection, and wherein a stabilisation circuit (D 11 -D 53) for stabilising the gate voltages of the JEFTs (J 1 -J 6) is connected between the gate connections of the JEFTs (J 1 -J 6) and the first connection, wherein an additional circuit is connected between the gate connection (G 6) of the uppermost JFET (J 6) and the second connection, and this additional circuit draws the potential at the gate connection (G 6) of the uppermost JFET (J 6) to the potential at the drain connection (D 6) of the uppermost JFET (J 6) characterised in that a symmetrising network comprising an RC-network arranged between the gates of the JFETs (J 1 -J 6) and the first connection is present, and wherein the symmetrising network is designed such that balancing processes in the symmetrising network that occur when switching have the smallest time constant at the uppermost JFET (J 6) and the largest time constant at the lowermost JEFT (J 1).
A hot-melt adhesive, comprising a base polymer for a hot-melt adhesive which satisfies the following and: a modulus of elasticity in tension at 23°C is 400 MPa or less; and a semi-crystallization time at 23°C is 20 minutes or less, wherein the base polymer is a blend of 1 to 99 parts by mass of a propylene homopolymer (a) having a meso pentad fraction (mmmm) of 1 to 45 mol% and 99 to 1 part by mass of a propylene homopolymer (b) having a meso pentad fraction (mmmm) of 46 to 80 mol%, and the total amount of the propylene homopolymers (a) and (b) is 100 parts by mass and wherein the modulus of elasticity, semi-crystallization time and a meso pentad fraction (mmmm) are measured by the method employed in the Examples of the description. a modulus of elasticity in tension at 23°C is 400 MPa or less; and a semi-crystallization time at 23°C is 20 minutes or less, wherein the base polymer is a blend of 1 to 99 parts by mass of a propylene homopolymer (a) having a meso pentad fraction (mmmm) of 1 to 45 mol% and 99 to 1 part by mass of a propylene homopolymer (b) having a meso pentad fraction (mmmm) of 46 to 80 mol%, and the total amount of the propylene homopolymers (a) and (b) is 100 parts by mass and wherein the modulus of elasticity, semi-crystallization time and a meso pentad fraction (mmmm) are measured by the method employed in the Examples of the description.
A method for alert throttling in media quality-monitoring, comprising: monitoring a plurality of active communication sessions, each active communication session between at least two endpoints; detecting at least one quality-impacted communication session out of the monitored plurality of active communication sessions; for each detected quality-impacted communication session, generating a first alert until the number of detected quality-impacted communication session reaches a first throttling number threshold; after the first throttling number threshold has been reached (31 Oa), counting detected quality-impacted communication sessions until a first predetermined number of detected quality-impacted communication sessions has been reached, generating a second alert when the counted number of detected quality-impacted communication sessions reaches the first predetermined number, and repeating the counting and generating the second alert, whereby second alerts are generated at intervals of the first predetermined number. monitoring a plurality of active communication sessions, each active communication session between at least two endpoints; detecting at least one quality-impacted communication session out of the monitored plurality of active communication sessions; for each detected quality-impacted communication session, generating a first alert until the number of detected quality-impacted communication session reaches a first throttling number threshold; after the first throttling number threshold has been reached (31 Oa), counting detected quality-impacted communication sessions until a first predetermined number of detected quality-impacted communication sessions has been reached, generating a second alert when the counted number of detected quality-impacted communication sessions reaches the first predetermined number, and repeating the counting and generating the second alert, whereby second alerts are generated at intervals of the first predetermined number.
A mounting assembly for sensing correct device orientation in a base, the correct orientation being a correct front-back and a correct top-to-bottom orientation, the mounting assembly comprising: a portable device; a base geometrically conformed to mate with the portable device; a plurality of Hall effect sensors (118, 124, 126, 128) coupled with the portable device; and two magnets (114, 116) coupled with the base, the magnets (114, 116) and the plurality of Hall effect sensors (118, 124, 126, 128) being cooperatively arranged such that proximity of at least one of the two magnets (114, 116) causes at least one of the plurality of Hall effect sensors (118, 124, 126, 128) to output an altered voltage signal when orientation of the portable device in the base is incorrect, characterized in that the mounting assembly comprises four Hall effect sensors (118, 124, 126, 128), wherein a first of the four Hall effect sensors (118, 124, 126, 128) outputs the altered voltage signal when an orientation of the portable device in the base includes correct front-to-back and incorrect top-to-bottom orientation, and a second of the four Hall effect sensors (118, 124, 126, 128) outputs the altered voltage signal when an orientation of the portable device in the base includes incorrect front-to-back and incorrect top-to-bottom orientation, the mounting assembly further comprising an alert system that, upon receiving the altered voltage signal from one of the first of the four Hall effect sensors (118, 126) and the second of the four Hall effect sensors (118, 126), outputs an alert indicating that orientation of the portable device in the base is incorrect. a portable device; a base geometrically conformed to mate with the portable device; a plurality of Hall effect sensors (118, 124, 126, 128) coupled with the portable device; and two magnets (114, 116) coupled with the base, the magnets (114, 116) and the plurality of Hall effect sensors (118, 124, 126, 128) being cooperatively arranged such that proximity of at least one of the two magnets (114, 116) causes at least one of the plurality of Hall effect sensors (118, 124, 126, 128) to output an altered voltage signal when orientation of the portable device in the base is incorrect, characterized in that the mounting assembly comprises four Hall effect sensors (118, 124, 126, 128), wherein a first of the four Hall effect sensors (118, 124, 126, 128) outputs the altered voltage signal when an orientation of the portable device in the base includes correct front-to-back and incorrect top-to-bottom orientation, and a second of the four Hall effect sensors (118, 124, 126, 128) outputs the altered voltage signal when an orientation of the portable device in the base includes incorrect front-to-back and incorrect top-to-bottom orientation, the mounting assembly further comprising an alert system that, upon receiving the altered voltage signal from one of the first of the four Hall effect sensors (118, 126) and the second of the four Hall effect sensors (118, 126), outputs an alert indicating that orientation of the portable device in the base is incorrect.
An apparatus for analysing biomass in a test sample by a capacitive measurement comprising: - a first electrode pair (8a, 8b) for application of an excitation current to a test sample; - a measuring arrangement being configured for measuring voltage through the test sample comprising a second electrode pair (10a, 10b), the measuring arrangement being further configured to receive the measured voltage and use the measured voltage to determine the capacitance of the test sample; and - a receptacle for receipt of the test sample, where the receptacle comprises a receptacle wall that forms a barrier between the first and second electrode pair and the test sample such that the receptacle wall contacts both the first and second electrode pairs and the test sample when the apparatus is in an operable state; and - first and second shielding arrangements (102, 104) for enclosing and thereby shielding each of the respective second electrodes (10a, 10b) from charge resulting from the application of the excitation current by the first electrode pair (8a, 8b); - where the receptacle comprises a bioreactor. - a first electrode pair (8a, 8b) for application of an excitation current to a test sample; - a measuring arrangement being configured for measuring voltage through the test sample comprising a second electrode pair (10a, 10b), the measuring arrangement being further configured to receive the measured voltage and use the measured voltage to determine the capacitance of the test sample; and - a receptacle for receipt of the test sample, where the receptacle comprises a receptacle wall that forms a barrier between the first and second electrode pair and the test sample such that the receptacle wall contacts both the first and second electrode pairs and the test sample when the apparatus is in an operable state; and - first and second shielding arrangements (102, 104) for enclosing and thereby shielding each of the respective second electrodes (10a, 10b) from charge resulting from the application of the excitation current by the first electrode pair (8a, 8b); - where the receptacle comprises a bioreactor.
Sealing ring comprising a static sealing seat, which is arranged on the inside of the sealing ring in a radial direction, and two sealing lips (3, 4), which are arranged on the outside of the sealing seat in the radial direction, wherein the sealing lips (3, 4) are in the form of axial sealing lips (5, 6), wherein one of the axial sealing lips is in the form of a radially inner, first axial sealing lip and one of the axial sealing lips is in the form of a radially outer, second axial sealing lip, wherein the second axial sealing lip surrounds the first axial sealing lip on the outer circumferential side with a radial spacing, characterized in that the first axial sealing lip has greater flexibility in the radial direction than the second axial sealing lip, wherein, radially on the outside, on the side which is directed radially away from the first axial sealing lip, the second axial sealing lip has a surface structure which is aerodynamically active during intended use of the sealing ring and which serves for swirling of the air layer adjoining the surface structure and which serves for repelling contaminants from the surroundings of the sealing ring, and in that the surface structure has elevations and depressions which, as viewed in a circumferential direction, are formed in an alternating manner.
Portable electrical drying apparatus for hanging clothing and household linen, comprising a flat body, which stands on the floor by means of fixed legs, in order to be located in horizontal position, characterized in that the flat body is composed of two side casings and two non-heating end profiles, wherein the above-mentioned casings comprise circuits, connections, a switch, a potentiometer, a timer, turbines and safety elements, the casings being connected by heat irradiating elements, working at a predetermined temperature, which contain heating elements to be selected among resistors, fluids and air, the irradiating elements being completely moisture-tight and generating the convection process which transforms cold air from the floor into hot air, making it rise and producing a gentle heat current.
A washing machine comprising: a cabinet; a drum rotatably disposed in the cabinet; an annular recess provided at the drum; and a balancer assembly (100, 100a) mounted to the recess, wherein the balancer assembly (100, 100a) comprises a balancer (101, 101 a) to offset unbalanced load generated in the drum during rotation of the drum; characterized by at least one balancer guide (160, 160a) coupled to an outer circumference of the balancer (101, 101a) to constitute the balancer assembly (100, 100a), the balancer guide (160, 160a) being mounted to the recess along with the balancer (101, 101a) so that an outer diameter of the balancer assembly (100, 100a) corresponds to the recess, and the balancer (101, 101a) comprises a plurality of fastening ribs disposed in a circumferential direction thereof, and the balancer guide (160, 160a) contacts at least one of the fastening ribs. a cabinet; a drum rotatably disposed in the cabinet; an annular recess provided at the drum; and a balancer assembly (100, 100a) mounted to the recess, wherein the balancer assembly (100, 100a) comprises a balancer (101, 101 a) to offset unbalanced load generated in the drum during rotation of the drum; characterized by at least one balancer guide (160, 160a) coupled to an outer circumference of the balancer (101, 101a) to constitute the balancer assembly (100, 100a), the balancer guide (160, 160a) being mounted to the recess along with the balancer (101, 101a) so that an outer diameter of the balancer assembly (100, 100a) corresponds to the recess, and the balancer (101, 101a) comprises a plurality of fastening ribs disposed in a circumferential direction thereof, and the balancer guide (160, 160a) contacts at least one of the fastening ribs.