mhurhangee/patent-ind-claim-en huggingface dataset:
Bioimpedance measuring device for measuring breast tissue, comprising a control unit and at least one measuring applicator having a first, a second, a third and a fourth contact electrode, which are arranged at the four corners of a square and which are or can be connected to the control unit via electrical lines, wherein the control unit is configured to generating an alternating current electrical signal and outputting it to two of the four contact electrodes so that they function as current electrodes, and receiving an alternating voltage electrical signal between two of the four contact electrodes so that they function as voltage electrodes, wherein at least two of the contact electrodes functioning as voltage electrodes do not simultaneously function as current electrodes, the control unit being further configured to apply an alternating electrical current signal in succession - simultaneously to the first and second contact electrodes, - simultaneously to the first and third contact electrodes, - simultaneously to the first and fourth contact electrodes, - simultaneously to the second and third contact electrodes, - simultaneously to the second and fourth contact electrodes, and - simultaneously to the third and fourth contact electrodes, the control unit comprises a computing unit that is configured to calculate a spatial impedance distribution of the breast tissue under examination from the alternating voltage signals recorded with different electrode configurations. generating an alternating current electrical signal and outputting it to two of the four contact electrodes so that they function as current electrodes, and receiving an alternating voltage electrical signal between two of the four contact electrodes so that they function as voltage electrodes, wherein at least two of the contact electrodes functioning as voltage electrodes do not simultaneously function as current electrodes, the control unit being further configured to apply an alternating electrical current signal in succession - simultaneously to the first and second contact electrodes, - simultaneously to the first and third contact electrodes, - simultaneously to the first and fourth contact electrodes, - simultaneously to the second and third contact electrodes, - simultaneously to the second and fourth contact electrodes, and - simultaneously to the third and fourth contact electrodes, - simultaneously to the first and second contact electrodes, - simultaneously to the first and third contact electrodes, - simultaneously to the first and fourth contact electrodes, - simultaneously to the second and third contact electrodes, - simultaneously to the second and fourth contact electrodes, and - simultaneously to the third and fourth contact electrodes, the control unit comprises a computing unit that is configured to calculate a spatial impedance distribution of the breast tissue under examination from the alternating voltage signals recorded with different electrode configurations.
Machine component , comprising: - a rotor for executing a rotational movement about an axis of rotation (R) and a co-rotating permanent magnet attached to the rotor to generate a useful magnetic field (B1, B2), - a Wiegand sensor for detecting the rotational movement, in particular the position and/or rotational speed of the rotor, said sensor having a Wiegand wire arranged statically relative to the rotor and in a plane perpendicular to the axis of rotation (R), whereby the permanent magnet is designed as a diametral magnet , and the axis of rotation (R) extends through the dividing line between the north pole (N) and the south pole (S) of the diametral magnet , an influencing element being provided to influence the useful magnetic field (B1, B2), characterized in that the influencing element is of flat design and covers the Wiegand wire on three sides along its axial direction, the influencing element being open towards the side facing the diametral magnet and the influencing element covering the Wiegand wire along its axial direction, at least in its central area on the three sides. - a rotor for executing a rotational movement about an axis of rotation (R) and a co-rotating permanent magnet attached to the rotor to generate a useful magnetic field (B1, B2), - a Wiegand sensor for detecting the rotational movement, in particular the position and/or rotational speed of the rotor, said sensor having a Wiegand wire arranged statically relative to the rotor and in a plane perpendicular to the axis of rotation (R), whereby
A discharger for discharging a predetermined amount of fluid comprising - a housing defining a longitudinal first axis (A 1 ) and having a proximal end and a distal end , - a discharge section having a discharge passage for the fluid extending between an inlet opening and an outlet opening of the discharge section , - a carriage cooperating with the proximal end region of the housing such that the carriage is moveable relative to the housing along the first axis (A 1 ), the carriage comprising a receiving space for the fluid protected from the environment by a breakable seal , and - a piercing tip for piercing the seal , the piercing tip - having a flow channel for establishing a flow connection for the fluid from the receiving space to the inlet opening of the discharge section , - being formed integrally with the housing or being formed as a unitary separate piece linked to the housing and/or the discharge section , - defining a centrally extending longitudinal second axis (A 2 ) and - having a shell surface , characterized in that the shell surface of the piercing tip has an essentially convexly curved, dome-shaped configuration. - a housing defining a longitudinal first axis (A 1 ) and having a proximal end and a distal end , - a discharge section having a discharge passage for the fluid extending between an inlet opening and an outlet opening of the discharge section , - a carriage cooperating with the proximal end region of the housing such that the carriage is moveable relative to the housing along the first axis (A 1 ), the carriage comprising a receiving space for the fluid protected from the environment by a breakable seal , and - a piercing tip for piercing the seal , the piercing tip - having a flow channel for establishing a flow connection for the fluid from the receiving space to the inlet opening of the discharge section , - being formed integrally with the housing or being formed as a unitary separate piece linked to the housing and/or the discharge section , - defining a centrally extending longitudinal second axis (A 2 ) and - having a shell surface , characterized in that the shell surface of the piercing tip has an essentially convexly curved, dome-shaped configuration. - having a flow channel for establishing a flow connection for the fluid from the receiving space to the inlet opening of the discharge section , - being formed integrally with the housing or being formed as a unitary separate piece linked to the housing and/or the discharge section , - defining a centrally extending longitudinal second axis (A 2 ) and - having a shell surface ,
Method for providing prefabricated lines for the automatic fabrication of at least one partial line set for assembling a line set for a motor vehicle, wherein a contact part is arranged at at least one end of a prefabricated line , wherein the at least one provided partial line set has a plurality of prefabricated lines , wherein the prefabricated lines are sequentially interconnected in an order provided for assembling the line set, wherein in each case two prefabricated lines which directly follow one another in the order are automatically sequentially interconnected via at least one connecting element , wherein the interconnected prefabricated lines of the partial line set are automatically wound onto a reel and unwound again from the reel during the subsequent assembly of the line set for material feed, wherein each partial line set has at least one component via which the partial line set is fastened in the vehicle.
Hay-making machine in the form of a merger for raking and/or transversely moving crops, comprising at least two merger units , which each comprise a collecting conveyor for collecting the crops from the ground and a cross conveyor for transversely conveying the collected crops transversely to the travel direction, wherein the merger units are each suspended so as to swing about a horizontal swing axle pointing in the travel direction to adapt to the ground, and wherein at least one of the merger units is suspended to be adjustable transversely to the travel direction in order to set down a side swath or a centre swath as desired, such that the two merger units can be moved together and moved apart as desired, wherein, in the moved-together position, for setting down a side swath, crops can be transferred from one merger unit to the other merger unit and, in the moved-apart position, for setting down a centre swath, crops can be set down by both merger units in a set-down gap between the two moved-apart merger units , characterised in that , between the merger units , at least one couplable and uncouplable joint comprising two coupling parts that can be brought into and out of engagement is provided, of which one coupling part is mounted on one of the merger units so as to be movable between a coupling position and an uncoupling position such that, by adjusting the movable coupling part relative to the merger unit to which the movable coupling part is fastened, the joint is coupled and uncoupled, wherein, in the coupled state, the joint allows the merger units to be angled relative to one another and allows for swinging movements of the merger units about their respective swing axles , but on the other hand prevents or at least limits a height offset of the merger units relative to one another in the region of a transfer interface between the two merger units .
A chip assembly configuration (200-1), comprising: a substrate , having a first surface (212-1) and a second surface (212-2) on an opposite side of the substrate from the first surface, with first connectors (214-1) disposed on the first surface and second connectors (214-2) disposed on the second surface, wherein the first connectors and the second connectors are electrically coupled by interconnectors through the substrate; wherein a given interconnector includes two vias electrically coupled by a signal line that includes a region approximately parallel to one of the first surface and the second surface, wherein the vias extend partially through the substrate, and wherein a length of the region is less than or equal to 1 mm; an integrated circuit positioned adjacent to the first surface and electrically coupled to the first connectors; and a conversion mechanism (220-1, 220-2) positioned adjacent to the second surface and electrically coupled to the second connectors, wherein the conversion mechanism is configured to convert electrical signals from the integrated circuit into corresponding first optical signals (222-1) and to convert second optical signals (222-2) to the integrated circuit into corresponding second electrical signals; and wherein the first optical signals and the second optical signals are communicated in the chip assembly configuration using an optical interconnect (224-1, 224-2). a substrate , having a first surface (212-1) and a second surface (212-2) on an opposite side of the substrate from the first surface, with first connectors (214-1) disposed on the first surface and second connectors (214-2) disposed on the second surface, wherein the first connectors and the second connectors are electrically coupled by interconnectors through the substrate; wherein a given interconnector includes two vias electrically coupled by a signal line that includes a region approximately parallel to one of the first surface and the second surface, wherein the vias extend partially through the substrate, and wherein a length of the region is less than or equal to 1 mm; an integrated circuit positioned adjacent to the first surface and electrically coupled to the first connectors; and a conversion mechanism (220-1, 220-2) positioned adjacent to the second surface and electrically coupled to the second connectors, wherein the conversion mechanism is configured to convert electrical signals from the integrated circuit into corresponding first optical signals (222-1) and to convert second optical signals (222-2) to the integrated circuit into corresponding second electrical signals; and wherein the first optical signals and the second optical signals are communicated in the chip assembly configuration using an optical interconnect (224-1, 224-2).
Swim cap with respirator with a capsule-shaped mouthpiece connected to a blowhole by a hollow flexible tube , characterized in that ear pockets house tight headphones that are part of a communication system that also includes a microphone integrated in said capsule-shaped mouthpiece that covers the outer shape of the mouth to allow talking without water entering, and said mouthpiece/capsule is held and adjusted to the face by means of a strap which extends laterally from the cap on one side, and on the other it comprises a flattened-section and hollow flexible tube which reaches the nape where said blowhole is located, and comprising a Bluetooth system that is also located in said blowhole to which the microphone and headphones are connected.
A method for use in a wireless device (110, 200, 491, 492, or 530), the method comprising: receiving , from a network node (160, 412, or 520), a transmission of system information, the transmission comprising coded bits received in a first set of subframes corresponding to subframes #4 of a plurality of radio frames; receiving , from the network node, an additional transmission of the system information, the additional transmission comprising additional coded bits, the additional transmission received in a second set of subframes corresponding to subframes of the plurality of radio frames other than subframes #4, wherein the coded bits and the additional coded bits are associated with indexes of a circular buffer used by the network node for obtaining the coded bits and the additional coded bits when transmitting the system information, and wherein the additional coded bits are associated with indexes continuing from indexes associated with the coded bits such that the index associated with the first additional coded bit is an incrementation by one of the index associated with the last coded bit modulo the size of the circular buffer. receiving , from a network node (160, 412, or 520), a transmission of system information, the transmission comprising coded bits received in a first set of subframes corresponding to subframes #4 of a plurality of radio frames; receiving , from the network node, an additional transmission of the system information, the additional transmission comprising additional coded bits, the additional transmission received in a second set of subframes corresponding to subframes of the plurality of radio frames other than subframes #4, wherein the coded bits and the additional coded bits are associated with indexes of a circular buffer used by the network node for obtaining the coded bits and the additional coded bits when transmitting the system information, and wherein the additional coded bits are associated with indexes continuing from indexes associated with the coded bits such that the index associated with the first additional coded bit is an incrementation by one of the index associated with the last coded bit modulo the size of the circular buffer.
A polyurethane or polyisocyanurate foam comprising 1 to 50 weight percent, based on the total weight of the polyurethane or polyisocyanurate foam, of a particulate poly(phenylene ether) being a particulate poly(2,6-dimethyl-1,4-phenylene ether) having a mean particle size of 2 to 8 micrometers; wherein the polyurethane or polyisocyanurate foam has a core density of 0,02 to 0.06 grams/centimeter 3 determined at 23 °C using ASTM D 1622-03.
Monomer which contains a 4-thiazolidinone unit connected to a benzene nucleus and which contains two functions selected from hydroxyl and carboxyl, which monomer is of formula (I-a) or (I-b) in which Y is hydroxyl or carboxyl, Q is alkyl or carboxyalkyl, R 2 is hydrogen, hydroxyl, carboxyl, alkyl or hydroxyalkyl, Y' is hydroxyl or carboxyl; Q' is alkyl or carboxyalkyl, or of formula (I-c) in which Y is hydroxyl or carboxyl, Q is alkyl or carboxyalkyl, Y' is hydroxyl or carboxyl; Q' is alkyl or carboxyalkyl, x is an integer ranging from 0 to 2, or else of formula (II-1) in which Q is alkyl or carboxyalkyl, R 3 is hydrogen, hydroxyl, carboxyl, alkyl or hydroxyalkyl, R 1 is alkyl and A 1 , a divalent carbon group which contains carbon atoms, is an alkanediyl or an alkanediyl interrupted by one or more oxygen atoms, m is an integer ranging from 0 to 4.
An optical see-through glass type display device , comprising: an image projector (140; 500; 600) projecting a virtual image; a first optical element configured to guide light of the virtual image; and a second optical element to be positioned between the first optical element and an ambient scene, wherein the second optical element has a first reflection surface for reflecting back light coming through the front surface of the second optical element and a second reflection surface , and the second optical element is switchable between a first state in which the reflection on the first and second reflection surfaces is enabled and a second state in which the reflection on the first and second reflection surfaces is disabled, characterized in that the second reflection surface retro-reflects light coming through the rear surface of the second optical element . an image projector (140; 500; 600) projecting a virtual image; a first optical element configured to guide light of the virtual image; and a second optical element to be positioned between the first optical element and an ambient scene, wherein the second optical element has a first reflection surface for reflecting back light coming through the front surface of the second optical element and a second reflection surface , and the second optical element is switchable between a first state in which the reflection on the first and second reflection surfaces is enabled and a second state in which the reflection on the first and second reflection surfaces is disabled, characterized in that the second reflection surface retro-reflects light coming through the rear surface of the second optical element .
An optical imaging system comprising: an imaging sensor configured to receive optical radiation and to produce an image of a viewed scene from the optical radiation ; an optical train including at least one optical component configured to receive the optical radiation from the viewed scene and to focus the optical radiation to the imaging sensor ; and characterized by : an acousto-optic modulator positioned in the optical train and having an ON state and an OFF state, the acousto-optic modulator being configured in the OFF state to pass the optical radiation , and the acousto-optic modulator being configured in the ON state to diffract the optical radiation and blur the image produced by the imaging sensor from the diffracted optical radiation . an imaging sensor configured to receive optical radiation and to produce an image of a viewed scene from the optical radiation ; an optical train including at least one optical component configured to receive the optical radiation from the viewed scene and to focus the optical radiation to the imaging sensor ; and characterized by : an acousto-optic modulator positioned in the optical train and having an ON state and an OFF state, the acousto-optic modulator being configured in the OFF state to pass the optical radiation , and the acousto-optic modulator being configured in the ON state to diffract the optical radiation and blur the image produced by the imaging sensor from the diffracted optical radiation .
A method for automatically panning a view for a commercial vehicle comprising: analyzing a portion of a first view at a first time to determine a position of a vehicle feature within the first view, wherein the first view is a subset of a second view; estimating an expected position of the vehicle feature in the first view at a second time subsequent to the first time; defining a region of interest centered on the expected position of the vehicle feature in the second view and analyzing the region of interest to determine an exact position of the vehicle feature at the second time; determining a current trailer angle based on a position of the vehicle feature within the second view; and adjusting the first view based on the current trailer angle. analyzing a portion of a first view at a first time to determine a position of a vehicle feature within the first view, wherein the first view is a subset of a second view; estimating an expected position of the vehicle feature in the first view at a second time subsequent to the first time; defining a region of interest centered on the expected position of the vehicle feature in the second view and analyzing the region of interest to determine an exact position of the vehicle feature at the second time; determining a current trailer angle based on a position of the vehicle feature within the second view; and adjusting the first view based on the current trailer angle.
A mechanical refrigeration system, of the type including a closed circuit for a refrigerant fluid, which includes a compressor device connected to a capacitor by means of which part of the heat generated in said compression process is extracted, there being established at the outlet of said capacitor an expansion valve after which the fluid loses pressure, causing it to evaporate in an evaporator , with a cold being generated that is utilised for the corresponding application, which evaporator is communicated in a closed circuit with the compressor device , and wherein the compressor device is materialised in a pair of dual-action cylinders connected together by means of a movable rod thereof which is common for both, such that a first dual-action cylinder of the pair of dual-action cylinders acts as a compression system for the refrigerant fluid, having at each of its two intakes , acting as both inlets and outlets, respective first and second pairs of branches, that is, a first branch , a second branch , a third branch and a fourth branch wherein said first and second pairs of branches are connected, which,by means of check valves , in series to the main refrigeration circuit , wherein a second dual-action cylinder of the pair of dual-action cylinders has two openings , corresponding to each of its two working chambers, each of which is connected to respective third and fourth pair of branches, that is, a fifth branch , a sixth branch , a seventh branch and an eighth branch , wherein in each branch of the fifth branch , the sixth branch , the seventh branch and the eighth branch there is established an opening/closing valve (A, B, C, D), that is, a first valve (A), a second valve (B), a third valve (C) and a fourth valve (D) respectively, there being communication between the sixth branch and the seventh branch , at which communication point there is established a pressurised water inlet and between the fifth branch and the eighth branch , at which communication point there is established an outlet for said water, wherein the opening and closing of the first valve (A) and the third valve (C) is mechanically synchronised, inversely with respect to the second valve (B) and the fourth valve (D), there having been provided that in correspondence with the movable rod common to the pair of dual-action cylinders there is established an actuator mechanically associated with limit switches thereof with means for inverting the position of the opening/closing valves (A, B, C, D).