mhurhangee/ep-ind-claims huggingface dataset:
A beverage dispensing apparatus for dispensing beverages provided with means (6,7; 86,87) to filter hot pressurised water through ground edible ingredients such as coffee, tea or herbal remedies in a brewing chamber (2; 82), comprising: - two pistons (4,5) independently operated by two motors, one piston being provided with a beverage outlet means for dispensing the beverage from the brewing chamber, and - a controlling unit comprising means of storing and comparing data including pre-set parameters for a brewing cycle, characterized in that said parameters include at least one of the flow rate of the beverage and the position of the outlet means, the controlling unit being adapted to control said motors so that: each piston (4,5) can be moved inside the brewing chamber in both forward and backward directions independently from the other piston (5,4) to define the volume of said brewing chamber, when required to bring said beverage flow rate data in line with said stored data, and each piston (4,5) can be moved together with the other piston (5,4) to vary the height of said outlet means while maintaining the correct pressure of said ground edible ingredients in the brewing chamber. - two pistons (4,5) independently operated by two motors, one piston being provided with a beverage outlet means for dispensing the beverage from the brewing chamber, and - a controlling unit comprising means of storing and comparing data including pre-set parameters for a brewing cycle, each piston (4,5) can be moved inside the brewing chamber in both forward and backward directions independently from the other piston (5,4) to define the volume of said brewing chamber, when required to bring said beverage flow rate data in line with said stored data, and each piston (4,5) can be moved together with the other piston (5,4) to vary the height of said outlet means while maintaining the correct pressure of said ground edible ingredients in the brewing chamber.
A device, comprising: a body; a first lens group on an optical axis; a first lens group actuator configured to move the first lens group along the optical axis; a second lens group actuator configured to move the first lens group transversely to the optical axis, wherein the second lens group actuator is at the same level along the optical axis as the first lens group actuator; a first suspension element configured to suspend the first lens group actuator from the second lens group actuator; and a second suspension element configured to suspend the second lens group actuator from the body, characterized in that the first suspension element is configured to transfer an electric signal between the first lens group actuator and the second lens group actuator and the second suspension element is configured to transfer an electric signal between the second lens group actuator and the body. a body; a first lens group on an optical axis; a first lens group actuator configured to move the first lens group along the optical axis; a second lens group actuator configured to move the first lens group transversely to the optical axis, wherein the second lens group actuator is at the same level along the optical axis as the first lens group actuator; a first suspension element configured to suspend the first lens group actuator from the second lens group actuator; and a second suspension element configured to suspend the second lens group actuator from the body, characterized in that the first suspension element is configured to transfer an electric signal between the first lens group actuator and the second lens group actuator and the second suspension element is configured to transfer an electric signal between the second lens group actuator and the body.
A mobile communication system configured to enable handover using a plurality of cells (104, 105, 202, 203), comprising: means for receiving from a mobile station a report of received signal power of a common pilot channel of each of the cells (104, 105, 202, 203) received at the mobile station; means for converting the received signal power in the report on the basis of the transmission power of the common pilot channel of each cell (104, 105, 202, 203); and means for determining a cell (104, 105, 202, 203) to which the mobile station is to be connected, on the basis of the converted received signal power of the common pilot channel of each of the cells (104, 105, 202, 203); and wherein the mobile communication system comprises: i) a base station (102, 103, 201, 301) which is configured to form a plurality of cells (104, 105, 202, 203) that use the same frequency; and ii) a base station controller configured to request the base station (102, 103, 201, 301) to connect to the mobile station using a cell (104, 105, 202, 203) determined as the cell (104, 105, 202, 203) to which the mobile station is to be connected; and wherein the base station (102, 103, 201, 301) is configured, in response to a request from the base station controller to connect to the mobile station using the cell (104, 105, 202, 203), to connect to the mobile station using the cell (104, 105, 202, 203) and to connect to the mobile station using another cell (104, 105, 202, 203) using the same frequency as the original cell (104, 105, 202, 203). means for receiving from a mobile station a report of received signal power of a common pilot channel of each of the cells (104, 105, 202, 203) received at the mobile station; means for converting the received signal power in the report on the basis of the transmission power of the common pilot channel of each cell (104, 105, 202, 203); and means for determining a cell (104, 105, 202, 203) to which the mobile station is to be connected, on the basis of the converted received signal power of the common pilot channel of each of the cells (104, 105, 202, 203); and wherein the mobile communication system comprises: i) a base station (102, 103, 201, 301) which is configured to form a plurality of cells (104, 105, 202, 203) that use the same frequency; and ii) a base station controller configured to request the base station (102, 103, 201, 301) to connect to the mobile station using a cell (104, 105, 202, 203) determined as the cell (104, 105, 202, 203) to which the mobile station is to be connected; and wherein i) a base station (102, 103, 201, 301) which is configured to form a plurality of cells (104, 105, 202, 203) that use the same frequency; and ii) a base station controller configured to request the base station (102, 103, 201, 301) to connect to the mobile station using a cell (104, 105, 202, 203) determined as the cell (104, 105, 202, 203) to which the mobile station is to be connected; and wherein
A method of inhibiting at least one of unwanted growth, proliferation or survival of a mammalian cell, comprising contacting said cell with an effective amount of a hedgehog RNAi antagonist against a target sequence of the hedgehog pathway, which target sequence is an Shh gene, wherein contacting said cell with said hedgehog RNAi antagonist decreases at least one of cell growth, proliferation or survival, and wherein said hedgehog RNAi antagonist comprises a nucleic acid sequence that is at least 90% identical to a nucleic acid sequence set forth in any of SEQ ID NOs: 5 to 6 and 9 to 12, wherein said method is not a method for treatment of the human or animal body by surgery or therapy.
A flexible wheel for a wheelbarrow or manually tractioned industrial carts being constituted by a single block of a PVC-based compound that comprises: a. An outer ring having on its extremity a tread surface and as tangents on each side having side tread surfaces; each side tread surface (12, 12a) having plurality of radial cavities (11, 11a) spaced along the wheel; the radial cavities of a side trade surface not being aligned in relation to the radial cavities of the opposite side tread surface; characterised in that the tread surface is formed by a curved rim and wherein the radial cavities are formed by 3 parallel, flexible edges, connected at the extremities by 2 non-deforming radial edges; b. A center wall being a flat, solid, ring-shaped wall contained in the central plane which contains the body of the wheel; each side of the flat wall being provided with a plurality of structures radially aligned to the radial cavities (11, 11a) contained in the outer ring; c. An inner ring being constituted of: a circular wall, a reinforcement rim and recesses with radial walls. a. An outer ring having on its extremity a tread surface and as tangents on each side having side tread surfaces; each side tread surface (12, 12a) having plurality of radial cavities (11, 11a) spaced along the wheel; the radial cavities of a side trade surface not being aligned in relation to the radial cavities of the opposite side tread surface; characterised in that the tread surface is formed by a curved rim and wherein the radial cavities are formed by 3 parallel, flexible edges, connected at the extremities by 2 non-deforming radial edges; b. A center wall being a flat, solid, ring-shaped wall contained in the central plane which contains the body of the wheel; each side of the flat wall being provided with a plurality of structures radially aligned to the radial cavities (11, 11a) contained in the outer ring; c. An inner ring being constituted of: a circular wall, a reinforcement rim and recesses with radial walls.
A copper-filler-containing composite nanometal paste comprising a composite silver nanoparticle in which an organic coating layer being an organic matter is formed around a silver core, and a copper filler which has no organic coating layer, wherein, as binders, said composite silver nanoparticle comprises a first composite silver nanoparticle with a first organic coating layer and a second composite silver nanoparticle with a second organic coating layer in which pyrolysis temperatures of said first organic coating layer and said second organic coating layer differ from each other, wherein a mass ratio W1 of said first organic coating layer in said first composite silver nanoparticle exists within a range of 2 to 13 mass%, and a mass ratio W2 of said second organic coating layer in said second composite silver nanoparticle exists within a range of 5 to 25 mass%, wherein, when T1 is a pyrolysis temperature of said first organic coating layer and T2 is a pyrolysis temperature of said second organic coating layer, relationships of Tl<T2 and W1<W2 are satisfied, and wherein the content of said first composite silver nanoparticle contained in said copper-filler-containing composite nanometal paste is higher than that of said second composite silver nanoparticle.
Screwdriver arrangement having a housing, a drive arrangement, which is arranged in the housing and has a motor, in particular an electric motor, a bit holder for fixing a screw bit, which bit holder is connected to an output shaft of the drive arrangement in a rotationally fixed but axially displaceable manner relative to the latter, elastic restoring means which press the bit holder into an axially forward initial position, a sensor which is designed and/or set up to detect an axial displacement of the bit holder from its initial position, which displacement takes place counter to the restoring force of the elastic restoring means and is directed rearwards into the housing, and control electronics which are coupled to the sensor and to the motor in order to switch the motor on and off as a function of output signals from the sensor, characterized in that a) a switching point for the motor can be set as a reference on the control electronics, which switching point corresponds to a desired axial position/length of the axial adjustment path which the bit holder must have reached or exceeded during its rearward axial adjustment in order to be able to switch on the motor, b) the sensor is designed and/or set up to detect the length of the axial adjustment path covered and/or the axial position of the bit holder during the rearward axial adjustment of the bit holder from its initial position and to transmit output signals corresponding to the detected length/position or an output signal which changes corresponding to the detected length/position to the control electronics, and c) the control electronics are designed and/or arranged, on the basis of the output signal(s) received from the sensor and the reference set at the control electronics, to automatically switch on/keep switched on the motor when the reference is reached or exceeded, but otherwise to switch off/keep switched off the motor. a) a switching point for the motor can be set as a reference on the control electronics, which switching point corresponds to a desired axial position/length of the axial adjustment path which the bit holder must have reached or exceeded during its rearward axial adjustment in order to be able to switch on the motor, b) the sensor is designed and/or set up to detect the length of the axial adjustment path covered and/or the axial position of the bit holder during the rearward axial adjustment of the bit holder from its initial position and to transmit output signals corresponding to the detected length/position or an output signal which changes corresponding to the detected length/position to the control electronics, and c) the control electronics are designed and/or arranged, on the basis of the output signal(s) received from the sensor and the reference set at the control electronics, to automatically switch on/keep switched on the motor when the reference is reached or exceeded, but otherwise to switch off/keep switched off the motor.
A method for separating slag material, the slag material including iron containing particles adhered to non-magnetic slag material, the iron containing particles having a first thermal expansion coefficient and the non-magnetic slag material having a second thermal expansion coefficient different from the first thermal expansion coefficient, the method comprising the steps of heating the slag material to an elevated temperature to thermally expand the iron containing particles at a rate different from a thermal expansion rate of the non-magnetic slag material to liberate the iron containing particles from the adhered non-magnetic material; tumbling the slag material heated to the elevated temperature to detach the iron containing particles from the non-magnetic slag material; size classifying the slag material into a first plurality of sized groups; magnetically separating at least one of the first plurality of sized groups to provide a first magnetic portion and a first non-magnetic portion, wherein the first non-magnetic portion is a finished low iron product; reducing the size of at least a portion of the slag material of the first magnetic portion to provide crushed material; size classifying the crushed material into a second plurality of sized groups; and, magnetically separating each of the second plurality of sized groups to provide a second magnetic portion and a second non-magnetic portion wherein the second magnetic portion includes an iron rich product.
A dynamic mixer having two or more inlets arranged at an inlet side of the dynamic mixer and an outlet arranged at an outlet side of the dynamic mixer, wherein a mixing element of the dynamic mixer is provided between the two or more inlets and the outlet and is configured to be coupled to a drive shaft via a coupling to drive the mixing element about a longitudinal axis of the mixing element, the mixing element comprising a rotor body and a two or more rows of rotor blades (28, 30, 56, 86) projecting radially from the rotor body away from the longitudinal axis between the rotor body, with a first row of rotor blades being arranged closer to the two or more inlets than the second row of rotor blades, the dynamic mixer further comprising a housing accommodating the mixing element, wherein an area between two directly adjacent rotor blades of the first row of rotor blades, the rotor body and the housing is an open area at a mixing inlet end, wherein each of the inlets is formed by a passage having an inlet opening and a mixer entry opening, with the inlet opening being remote from the rotor blades (28, 30, 56, 86) and the mixer entry opening being arranged directly adjacent to the mixing inlet end and to the open area formed between rotor blades of the first row of rotor blades, wherein the mixer entry opening has a mixer inlet area, characterized by the mixer inlet area being greater than the open area.
An implant for attaching to a bone, having bone formfitting sections which are inclined relative to each other to rest on the surface of a bone, wherein two bone formfitting sections are aligned relative to each other in a sub-region of the implant inserted in its original shape such that surrounding of the bone definitely secures the position of the implant abutting on the bone in all three spatial directions, and wherein the implant includes screw seating holes aligned such that they can be used as a boring template for introducing bores into the bone, characterized in that the implant is in the form of a boring template comprising drill guide bushes.
A method for determining the presence or absence of a risk of developing a familial tumor which is caused by a germ cell mutation in p53, comprising detecting the presence or absence of a mutation to substitute alanine with aspartic acid at codon 159 of human p53 and/or a mutation to substitute aspartic acid with histidine at codon 49 of human p53 in a biological sample collected from a test subject.
Method for operating a battery sensor, wherein the battery sensor has a first connection and a second connection for contact-connecting the poles (18, 20) of a battery, at least one measuring resistor (28, 28a, 28b) and at least one voltage capture device (30, 30a, 30b) for capturing a voltage drop of a load current of the battery flowing via the battery sensor across the measuring resistor (28, 28a, 28b) and for outputting at least one measured value dependent on the captured voltage drop for determining the load current flowing via the battery sensor, and an evaluation circuit, having the following steps of: - determining a correction value for the measured value by means of the evaluation circuit, and - determining a first temperature value of the measuring resistor (28, 28a, 28b) on the basis of the determined correction value by means of the evaluation circuit. - determining a correction value for the measured value by means of the evaluation circuit, and - determining a first temperature value of the measuring resistor (28, 28a, 28b) on the basis of the determined correction value by means of the evaluation circuit.
A method of producing a booklet, the booklet including a cover sheet and a plurality of inner sheets, the cover sheet and the plurality of inner sheets being nested together to form the booklet, each sheet having a respective thickness, the cover sheet having a length in a specific direction, and a fold axis of the cover sheet being defined in the center of the cover sheet in the specific direction, the method comprising: automatically folding the cover sheet along its fold axis; selecting an inner sheet; using a processor to determine a fold axis position of the selected inner sheet, so that a fold axis of the selected inner sheet is defined at the fold axis position of the inner sheet along the specific direction; selectively printing a print image on the selected inner sheet using a print engine; automatically folding the selected inner sheet along its fold axis after printing; automatically nesting the folded selected inner sheet into the booklet, so that an edge of the selected inner sheet protrudes beyond an edge of the cover sheet; using a cutting device to cut the protruding edge of the selected inner sheet flush with the corresponding edge of the cover sheet; repeating the selecting through cutting steps to produce the booklet having more than two sheets; and, subsequently, using a fastening unit to fasten the fold axes of nested sheets together. automatically folding the cover sheet along its fold axis; selecting an inner sheet; using a processor to determine a fold axis position of the selected inner sheet, so that a fold axis of the selected inner sheet is defined at the fold axis position of the inner sheet along the specific direction; selectively printing a print image on the selected inner sheet using a print engine; automatically folding the selected inner sheet along its fold axis after printing; automatically nesting the folded selected inner sheet into the booklet, so that an edge of the selected inner sheet protrudes beyond an edge of the cover sheet; using a cutting device to cut the protruding edge of the selected inner sheet flush with the corresponding edge of the cover sheet; repeating the selecting through cutting steps to produce the booklet having more than two sheets; and, subsequently, using a fastening unit to fasten the fold axes of nested sheets together.
A method, performed by one or more processors, comprising: receiving an indication of a desired modification to a cybersecurity event detector that is being contemporaneously used for the detection of potential cybersecurity events in a production environment; modifying, in a sandbox environment, the cybersecurity event detector based on the indication of the desired modification to the cybersecurity event detector; for each system event in a set of system events, determining, in the sandbox environment, whether the respective system event is indicative of a potential cybersecurity event using the modified cybersecurity event detector, wherein the set of system events comprises a set of detected production system events, wherein each system event of the set of detected production system events has been determined, using the cybersecurity event detector, to be indicative of a potential cybersecurity event; and sending one or more cybersecurity event detection statistics, wherein each of the cybersecurity event detection statistics is based on the number of system events of a respective subset of the set of system events determined, using the modified cybersecurity event detector, to be indicative of a potential cybersecurity event. receiving an indication of a desired modification to a cybersecurity event detector that is being contemporaneously used for the detection of potential cybersecurity events in a production environment; modifying, in a sandbox environment, the cybersecurity event detector based on the indication of the desired modification to the cybersecurity event detector; for each system event in a set of system events, determining, in the sandbox environment, whether the respective system event is indicative of a potential cybersecurity event using the modified cybersecurity event detector, wherein the set of system events comprises a set of detected production system events, wherein each system event of the set of detected production system events has been determined, using the cybersecurity event detector, to be indicative of a potential cybersecurity event; and sending one or more cybersecurity event detection statistics, wherein each of the cybersecurity event detection statistics is based on the number of system events of a respective subset of the set of system events determined, using the modified cybersecurity event detector, to be indicative of a potential cybersecurity event.