mhurhangee/ep-ind-claims huggingface dataset:
A distribution system for a process fluid and an electric current for an electrolytic surface treatment of a substrate, comprising: - a distribution body, - a primary cathode, and - a secondary cathode, wherein the distribution body comprises several openings for the process fluid and the electric current, wherein the several openings are arranged at a front face of the distribution body, wherein the front face is directed to the primary cathode, wherein the primary cathode and the secondary cathode are arranged to attract the electric current and to guide the electric current to the substrate to be treated, wherein the secondary cathode comprises several cathode pixels, wherein the several cathode pixels are distributed in an array to be aligned with at least an area of the substrate to be treated, wherein the several cathode pixels are individually controllable for adjusting a distribution of the electric current at the substrate, and characterized in that the cathode pixels are arranged at the distribution body. - a distribution body, - a primary cathode, and - a secondary cathode, wherein the distribution body comprises several openings for the process fluid and the electric current, wherein the several openings are arranged at a front face of the distribution body, wherein the front face is directed to the primary cathode, wherein the primary cathode and the secondary cathode are arranged to attract the electric current and to guide the electric current to the substrate to be treated, wherein the secondary cathode comprises several cathode pixels, wherein the several cathode pixels are distributed in an array to be aligned with at least an area of the substrate to be treated, wherein the several cathode pixels are individually controllable for adjusting a distribution of the electric current at the substrate, and characterized in that the cathode pixels are arranged at the distribution body.
Two-channel air conditioner for the climate control of a number of rooms (44, 46, 48) and/or room zones, each having at least one air inlet device for each room (44, 46, 48) to be air-conditioned, having at least one pair of supply air channels (20, 22), at least one supply air channel (20, 22) comprising a cooling and/or heating matrix (32, 34; 58, 60), having at least one temperature controller for each room (44, 46, 48) to be air-conditioned, which controls the room (44, 46, 48) to be air-conditioned to an adjustable room temperature (T roomSP), having at least one valve unit (54, 72) each assigned to each supply air channel (20, 22), which connects the associated supply air channel (20, 22) to the respective air inlet device, characterized in that the valve units (54, 72) are formed independently of one another in such a way that the quantities of air from the respective supply air channels (20, 22) to the individual rooms (44, 46, 48) to be air-conditioned can be adjusted independently of one another such that the maximum supply air quantity from one supply air channel and also the maximum supply air quantity from the other supply air channel can be led into a room (44, 46, 48) to be air-conditioned, in that the two-channel air conditioner has a switching system, which interacts with the temperature controllers of the rooms to be air-conditioned and which is connected to the cooling or heating matrix (32, 34; 58, 60) arranged in at least one supply air channel (20, 22), wherein the switching system outputs an actuating signal opening the cooling or heating matrix (32, 34; 58, 60) only when the temperature in at least one supply air channel (20, 22) is not sufficient to cool or heat the rooms (44, 46, 48) to be air-conditioned in conjunction with the quantity of air delivered, and in that the supply air channels (20, 22) are designed for different quantities of supply air, in that a first supply air channel has a smaller cross-sectional area than a second supply air channel.
Synthetic mineral compound, called synthetic mica, corresponding to the following formula: A t (Si x Ge 1-x) 4 M z O 10 2 in which: - A denotes at least one monovalent interfoliary cation of a metal element, A having the formula Li w Na w K W Rb w Cs w; Li denoting lithium, Na denoting sodium, K denoting potassium, Rb denoting rubidium, Cs denoting cesium and each w(i) representing a real number of the interval [0; 1], such that ∑ i = 1 5 w i = 1, - t is a real number of the interval [0.3; 1], - Si denotes silicon, - Ge denotes germanium, - x is a real number of the interval [0; 1], - M denotes at least one divalent metal having the formula Mg y Co y Zn y Cu y Mn y Fe y Ni y Cr y; Mg denoting magnesium, Co denoting cobalt, Zn denoting zinc, Cu denoting copper, Mn denoting manganese, Fe denoting iron, Ni denoting nickel, and Cr denoting chromium; each y(i) representing a real number of the interval [0; 1], such that ∑ i = 1 8 y i = 1, - z is a real number in the range [2.50; 2.85], - t + 2z is a real number of the interval [5.3; 6.0] - O denotes oxygen, and - H denotes hydrogen. - A denotes at least one monovalent interfoliary cation of a metal element, A having the formula Li w Na w K W Rb w Cs w; Li denoting lithium, Na denoting sodium, K denoting potassium, Rb denoting rubidium, Cs denoting cesium and each w(i) representing a real number of the interval [0; 1], such that ∑ i = 1 5 w i = 1, - t is a real number of the interval [0.3; 1], - Si denotes silicon, - Ge denotes germanium, - x is a real number of the interval [0; 1], - M denotes at least one divalent metal having the formula Mg y Co y Zn y Cu y Mn y Fe y Ni y Cr y; Mg denoting magnesium, Co denoting cobalt, Zn denoting zinc, Cu denoting copper, Mn denoting manganese, Fe denoting iron, Ni denoting nickel, and Cr denoting chromium; each y(i) representing a real number of the interval [0; 1], such that ∑ i = 1 8 y i = 1, - z is a real number in the range [2.50; 2.85], - t + 2z is a real number of the interval [5.3; 6.0] - O denotes oxygen, and - H denotes hydrogen.
A method of making a patient-specific guide for use in reaming a patients' acetabulum to receive the acetabular component of a hip joint prosthesis, which comprises: a. generating a plurality of images of a patient's acetabulum and surrounding bony anatomy, b. transmitting the images to a party which can manufacture the orthopaedic surgical instrument, c. generating a processed image of the patient's acetabulum and surrounding bony anatomy from the plurality of images, d. determining the angles of the inclination and version planes for the acetabular component when implanted in the patient based on the plurality of images, e. overlaying a digital template of the acetabular orthopaedic implant component on to the processed image to identify the location and orientation of the implant component in the patient's acetabulum, f. generating a model of a guide for use in reaming the patient's acetabulum to receive the implant component, in which the guide comprises (i) a body having a longitudinal passageway extending through it, (ii) a plurality of arms extending from the body, and (iii) a plurality of feet configured to contact the patient's coxal bone, each foot of the plurality of feet being coupled to a corresponding arm of the plurality of arms, in which each foot of the plurality of feet is positioned relative to the body based on the determined version and inclination angles of the acetabular cup prosthesis when implanted in the patient's coxal bone and the contour of the coxal bone of the patient, g. validating the model of the reaming guide, and h. fabricating the guide according to the validated model. a. generating a plurality of images of a patient's acetabulum and surrounding bony anatomy, b. transmitting the images to a party which can manufacture the orthopaedic surgical instrument, c. generating a processed image of the patient's acetabulum and surrounding bony anatomy from the plurality of images, d. determining the angles of the inclination and version planes for the acetabular component when implanted in the patient based on the plurality of images, e. overlaying a digital template of the acetabular orthopaedic implant component on to the processed image to identify the location and orientation of the implant component in the patient's acetabulum, f. generating a model of a guide for use in reaming the patient's acetabulum to receive the implant component, in which the guide comprises (i) a body having a longitudinal passageway extending through it, (ii) a plurality of arms extending from the body, and (iii) a plurality of feet configured to contact the patient's coxal bone, each foot of the plurality of feet being coupled to a corresponding arm of the plurality of arms, in which each foot of the plurality of feet is positioned relative to the body based on the determined version and inclination angles of the acetabular cup prosthesis when implanted in the patient's coxal bone and the contour of the coxal bone of the patient, g. validating the model of the reaming guide, and h. fabricating the guide according to the validated model.
A flow sensor, comprising: a base member with a flow channel, a flow sensor element (13, 134) adjoining the flow channel, and a cover plate being attached to the base member and covering the flow channel, the flow channel being formed by a sealing lip, which surrounds and defines the flow channel on a top side of the main body being opposite to the cover plate and is pressed sealingly against the cover plate, wherein the base member is formed of a first and a second region (10, 11), which consist in each case of a different material and are joined together, wherein the flow channel is formed in the first region, which consists of a significantly more resilient material than the second region, and in that the second region comprises a surface, which defines a surface plane, wherein the cover plate lies on the surface plane when the cover plate is attached to the base member, characterized in that the surface plane lies between the plane of a channel bed of the flow channel and the sealing lips projecting beyond the surface of the second region when the cover plate is removed, and in that the flow channel is formed on the channel bed on the top side of the base member in such a way that the flow channel is delimited in cross-section in each case laterally by the sealing lips projecting upwards from the channel bed and from an outer channel surrounding the flow channel. a base member with a flow channel, a flow sensor element (13, 134) adjoining the flow channel, and a cover plate being attached to the base member and covering the flow channel, the flow channel being formed by a sealing lip, which surrounds and defines the flow channel on a top side of the main body being opposite to the cover plate and is pressed sealingly against the cover plate, wherein the base member is formed of a first and a second region (10, 11), which consist in each case of a different material and are joined together, wherein the flow channel is formed in the first region, which consists of a significantly more resilient material than the second region, and in that the second region comprises a surface, which defines a surface plane, wherein the cover plate lies on the surface plane when the cover plate is attached to the base member, characterized in that the surface plane lies between the plane of a channel bed of the flow channel and the sealing lips projecting beyond the surface of the second region when the cover plate is removed, and in that the flow channel is formed on the channel bed on the top side of the base member in such a way that the flow channel is delimited in cross-section in each case laterally by the sealing lips projecting upwards from the channel bed and from an outer channel surrounding the flow channel.
Ultrasonic probe for checking a workpiece in a concavely curved region of its surface, in the housing of which at least two linear transducer arrays (4a, b) serving as emitter and receiver transducers are formed, said transducer arrays (4a, b) each being formed of a plurality of transducer elements (6a, b) which can be controlled by each other with delayed-action and are arranged in a row in the direction of a central longitudinal axis (12a, b), and which are arranged side by side on their longitudinal sides in such a way that their central longitudinal axes (12a, b) and therefore their emitter or receiver surfaces (8a, b) are positioned to be tilting towards each other.
A method operating on a wireless user equipment device, said method comprising: receiving a plurality of audio signatures from a head unit (102, 202) via an audio system having a plurality of speaker channels (106A-106B, 204A-204D), wherein said plurality of audio signatures are masked within an audible background audio signal received from said head unit (102, 202) and recorded by a microphone of said wireless UE device; receiving an encoded vehicle information signal from said head unit via at least one of said plurality of speaker channels (106A-106D); decoding said encoded vehicle information signal to obtain an identity of a vehicle in which said head unit is implemented; correlating said identity with a database to determine a spatial configuration; and processing said plurality of audio signatures, by a processor of said wireless UE device configured to operate in association with one or more subsystems of said wireless UE device for determining said wireless UE device's location relative to said spatial configuration (101, 201) associated with the interior of a vehicle. receiving a plurality of audio signatures from a head unit (102, 202) via an audio system having a plurality of speaker channels (106A-106B, 204A-204D), wherein said plurality of audio signatures are masked within an audible background audio signal received from said head unit (102, 202) and recorded by a microphone of said wireless UE device; receiving an encoded vehicle information signal from said head unit via at least one of said plurality of speaker channels (106A-106D); decoding said encoded vehicle information signal to obtain an identity of a vehicle in which said head unit is implemented; correlating said identity with a database to determine a spatial configuration; and processing said plurality of audio signatures, by a processor of said wireless UE device configured to operate in association with one or more subsystems of said wireless UE device for determining said wireless UE device's location relative to said spatial configuration (101, 201) associated with the interior of a vehicle.
An electrode arrangement for electrochemically treating a liquid, wherein the electrode arrangement has two electrodes, each of which has at least one electrode surface, wherein the at least one electrode is a diamond electrode, and at least one through-flow chamber with at least one inlet and at least one outlet, wherein the at least one through-flow chamber is delimited on at least one first side by at least one electrode which has a structure on its electrode surface such that a distance between the electrode surface and a second side of the through-flow chamber opposite the first side varies, characterized in that the structure forms at least 30% of the electrode surface and is configured such that a distance between the electrode surface and the second side increases and decreases multiple times along at least one direction, and such that the liquid flowing through the through-flow chamber is mixed by means of the structure and is caused in particular to flow in a turbulent manner, wherein the structure has a plurality of recesses, channels, grooves or slots.
A tire casing comprising a sidewall part, a bead part, a carcass ply, and a belt part and having been previously vulcanized prior to sticking a tread member, wherein when a distance from an end part of the tread member joint surface to an end part of the bottom surface of the bead part along the surface of the sidewall part is defined to be 1, the tire casing has a side rubber member extending in a proportion of from 0.09 to 0.30 of the distance along the surface of the sidewall part from the end part of the tread joint surface, and the side rubber member contains 100 parts by mass of a rubber component comprising at least one or more selected from the group consisting of a natural rubber, a synthetic isoprene rubber, a polybutadiene rubber, and a styrene-butadiene copolymer rubber, and from 40 to 100 parts by mass of carbon black having a nitrogen adsorption specific surface area (N 2 SA, as measured according to JIS K6217-2:2001) of from 70 to 150 m 2 /g, and wherein the tire casing has a side rubber member extending along the surface of the sidewall part from an innermost position in at least a tire radius direction of the side rubber member to a straight line at right angles to a tire center line, the straight line penetrates at least an end part of the carcass ply, and the side rubber member contains 100 parts by mass of a rubber component comprising at least one or more selected from the group consisting of a natural rubber, a synthetic isoprene rubber, and a polybutadiene rubber and from 20 to 80 parts by mass of carbon black having a nitrogen adsorption specific surface area (N 2 SA, as measured according to JIS K6217-2:2001) of from 25 to 60 m 2 /g.
A robotic system comprising: a beam transmitter operable to emit a plurality of angularly-spaced beams of radiation in an area; and a robot operable to move within said area and to detect when it is in the path of one of said beams; wherein said robot is further operable, upon moving through a distance across the paths of three or more of said beams (x 0, x 1, x 2), to determine the relative position of said transmitter and said robot by using information relating to said distance and information relating to the spacing of said beams (θ); characterised in that the robot is further operable to: identify one of said plurality of beams of radiation, which is adjacent the robot; then to move along said beam of radiation adjacent the robot; then to detect that it is adjacent the boundary of said area; then to move along the boundary until a further one of said plurality of beams of radiation is detected; and then to move along said further beam. a beam transmitter operable to emit a plurality of angularly-spaced beams of radiation in an area; and a robot operable to move within said area and to detect when it is in the path of one of said beams;
Method for automatically moving a tiltable flap of a motor vehicle, in particular a boot hatch door, comprising a drive mechanism, which can be controlled by means of a control device, for automatically opening the flap, and a device, comprising at least one ultrasound sensor, for detecting any obstacle in the movement path of the flap, the detection device continuously determining the distance to any obstacle and the control device controlling the movement of the flap as a function of the detection result, characterised in that upon reaching a defined minimum distance, up to which the distance to the obstacle can be determined by the at least one ultrasound sensor, the movement of the flap is continued for a predetermined period of time, and is only stopped when a predetermined period of time has elapsed.
A method performed by a first node using a first link to communicate with a second node in a wireless communication system, the method comprising: decoding a signal to acquire information (407, 409) on a second link between a third node and a fourth node, wherein the signal is a wireless signal used to transmit data between the third node that is a source node of the second link and the fourth node that is a destination node of the second link, and is considered as interference to the first node; and transmitting a message including the information (407, 409) on the second link, to a control node that performs scheduling of resources used by nodes to communicate on links, wherein the information (407, 409) on the second link comprises an address of the third node and an address of the fourth node, and wherein the second link is identified by the control node based on the address of the third node and the address of the fourth node. decoding a signal to acquire information (407, 409) on a second link between a third node and a fourth node, wherein the signal is a wireless signal used to transmit data between the third node that is a source node of the second link and the fourth node that is a destination node of the second link, and is considered as interference to the first node; and transmitting a message including the information (407, 409) on the second link, to a control node that performs scheduling of resources used by nodes to communicate on links, wherein the information (407, 409) on the second link comprises an address of the third node and an address of the fourth node, and wherein the second link is identified by the control node based on the address of the third node and the address of the fourth node.
Overload protection arrangement for protecting an overvoltage protection component comprising at least one overvoltage protection component, two connection elements (3, 4) for connecting the overvoltage protection component to the current or signal path to be protected, a carrier with current carrying elements and at least one actuator, wherein the first connection element comprises a thermosensitive contact element, wherein the at least one overvoltage protection component is connected in a first position with its first pole via the thermosensitive contact element to the carrier in such a way that an electrical connection to the circuit to be protected can be established via the thermosensitive contact element, wherein the second pole of the overvoltage protection component is electrically connected to a current carrying element of the carrier via the second connection element, and wherein the at least one overvoltage protection component, in the event of a thermal overload by the at least one actuator, can be brought into a second position in which the electrical contact is interrupted via the thermosensitive contact element, and wherein the second connection element is designed and arranged in such a way that it enables the movement of the overvoltage protection component from the first position into the second position. wherein the first connection element comprises a thermosensitive contact element, wherein the at least one overvoltage protection component is connected in a first position with its first pole via the thermosensitive contact element to the carrier in such a way that an electrical connection to the circuit to be protected can be established via the thermosensitive contact element, wherein the second pole of the overvoltage protection component is electrically connected to a current carrying element of the carrier via the second connection element, and wherein the at least one overvoltage protection component, in the event of a thermal overload by the at least one actuator, can be brought into a second position in which the electrical contact is interrupted via the thermosensitive contact element, and wherein the second connection element is designed and arranged in such a way that it enables the movement of the overvoltage protection component from the first position into the second position.
Wear resistant member, comprising a silicon nitride sintered body, wherein the silicon nitride sintered body contains from 75 to 97% by mass of silicon nitride, from 0.2 to 5% by mass of particles of titanium nitride, and 2 to 20% by mass of grain boundary phase substantially contain Si-R-Al-O-N compound (here, R denotes at least one kind of a rare earth element selected from the group of yttrium, lanthanum (La), cerium (Ce), samarium (Sm), neodymium (Nd), dysprosium (Dy) and erbium (Er)) and wherein the long axis of the titanium nitride particles is 1 μm or less.