mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, comprising: a radio-frequency, RF, transceiver capable of operating via time-division duplexing, TDD, in a first mode and capable of operating via frequency-division duplexing, FDD, in a second mode; and a processor coupled to the RF transceiver for selecting a mode of operation of the RF transceiver to communicate with an alternate spectrum holder; the processor is configured to select the mode of operation of the RF transceiver in response to available spectrum not utilized by a primary spectrum holder other than the alternate spectrum holder; said user equipment characterised in that the processor is configured to switch from operating via FDD in the second mode to operating via TDD in the first mode to communicate with the alternate spectrum holder if a portion of spectrum utilized by the primary spectrum holder and previously separating an uplink, UL, band and a downlink, DL, band during FDD operation is freed and made available to the alternate spectrum holder; wherein TDD operation in the first mode is performed in the freed spectrum portion. a radio-frequency, RF, transceiver capable of operating via time-division duplexing, TDD, in a first mode and capable of operating via frequency-division duplexing, FDD, in a second mode; and a processor coupled to the RF transceiver for selecting a mode of operation of the RF transceiver to communicate with an alternate spectrum holder; the processor is configured to select the mode of operation of the RF transceiver in response to available spectrum not utilized by a primary spectrum holder other than the alternate spectrum holder; said user equipment characterised in that the processor is configured to switch from operating via FDD in the second mode to operating via TDD in the first mode to communicate with the alternate spectrum holder if a portion of spectrum utilized by the primary spectrum holder and previously separating an uplink, UL, band and a downlink, DL, band during FDD operation is freed and made available to the alternate spectrum holder; wherein TDD operation in the first mode is performed in the freed spectrum portion.
A tank cap comprising a containment body and including an electronic level sensor (4, 6) that comprises a detection device (4,4') for detecting the level of liquids and a first electronic control unit configured to transmit a level signal as a function of the detection carried out by said device (4, 4'), said body is comprised in an annular base defining a central access and adapted to be fixed to the mouth of a tank, characterized in that said first control unit is housed in a first seat comprised in said containment body, the tank cap further comprising a flap suitable for closing said central access.
A method for manufacturing a middle- or large-sized battery module comprising a plurality of stacked unit modules, each unit module including two or more plate-shaped battery cells (100;101) electrically connected with each other, each battery cell (100;101) having electrode terminals formed at opposite sides thereof, said method comprising the following steps: - connecting electrode terminals of a pair of unit modules by welding, - mounting a sensing unit, including a sensing member for voltage measurement, to a welding part of upper electrode terminals (420;421), the sensing unit being stacked between the unit modules, - bending the welding part such that the unit modules are stacked, and - repeatedly performing the above steps until all the unit modules are stacked. - connecting electrode terminals of a pair of unit modules by welding, - mounting a sensing unit, including a sensing member for voltage measurement, to a welding part of upper electrode terminals (420;421), the sensing unit being stacked between the unit modules, - bending the welding part such that the unit modules are stacked, and - repeatedly performing the above steps until all the unit modules are stacked.
Lateral flow immunochromatography diagnosis kit for diagnosing Mannheimia haemolytica bacteria characterized in that it comprises; i. Nitrocellulose membrane ii. a test line comprising bound monoclonal antibody produced against the Mannheimia haemolytica Serotype A1 capsule protein on the nitrocellulose membrane and a control line comprising bound secondary antibody, iii. a sample pad located on the support card which serves as the base material, iv. a conjugation pad impregnated with the conjugate that comprises 10% by weight monoclonal antibody developed against Mannheimia haemolytica Serotype A1 capsule protein which is a different clone and recognizing a different epitope of the same antigen than the antibody used on the test line and 90% by weight the marker/colorant molecules and v. a waste pad. i. Nitrocellulose membrane ii. a test line comprising bound monoclonal antibody produced against the Mannheimia haemolytica Serotype A1 capsule protein on the nitrocellulose membrane and a control line comprising bound secondary antibody, iii. a sample pad located on the support card which serves as the base material, iv. a conjugation pad impregnated with the conjugate that comprises 10% by weight monoclonal antibody developed against Mannheimia haemolytica Serotype A1 capsule protein which is a different clone and recognizing a different epitope of the same antigen than the antibody used on the test line and 90% by weight the marker/colorant molecules and v. a waste pad.
A cabin for an agricultural working vehicle, comprising a cabin roof as well as a frame structure receiving the cabin roof, which has frame elements (8, 9) running in the vertical direction as well as frame elements (10, 10, 12, 13) running transversely and which are configured as hollow profiles, characterized in that at least the frame elements (8, 9) running in the vertical direction can respectively be closed, at least on their side facing away from the cabin roof, by a vibration damping element (14, 14a) which can be inserted into the frame element (8, 9) running in the vertical direction, wherein the respective vibration damping element (14, 14a) comprises at least one damping element (17, 21) which is disposed between at least two clamping plates (15, 16), wherein in the mounted position of the vibration damping element (14, 14a), the at least two clamping plates (15, 16) can be loaded with a force directed substantially perpendicular to the surface of the clamping plates (15, 16), so that the damping element (17, 21) extends reversibly in a direction running transversely to the line of action of the force and seals a bottom region of the frame element (8, 9) running in the vertical direction.
Track widening system for motor vehicles, having at least one track widening disc and a centering ring which is inserted into a central opening of the track widening disc, wherein the centering ring has a rim centering portion (40, 46, 56), which projects over a front side of the track widening disc and which is provided to be inserted into a central opening of a wheel rim, wherein the centering ring is composed of synthetic material and has at least one first catch device which is arranged at the free end of a resilient arm, wherein the track widening disc has a corresponding second catch device, wherein the first catch device is in the form of a catch projection which projects outwards in a radial direction, and wherein the second catch device is constructed by means of a peripheral shoulder extending around the central opening, a peripheral chamfered portion extending around the central opening, or a peripheral groove extending around the central opening, characterized in that the rim centering portion (40, 46, 56) of the centering ring is slightly conical, and wherein the centering ring is an injection-moulded component made of synthetic material.
Process for the production of a mixture of ethylene and propylene from a mixture containing ethanol and n-propanol and having a water content comprised between 30 and 75% by weight with respect to the total weight of the mixture, in which: a) the mixture is brought into contact, in a dehydration unit, with a dehydration catalyst chosen from: - an alumina having a BET specific surface area measured according to the standard ASTM D 3663-03 comprised between 200 and 280 m 2 /g, a mean mesopore diameter comprised between 5 and 15 nm, a sodium content of less than 50 ppm by weight and a sulphur content of less than 40 ppm by weight; and - an alumina having a BET specific surface area measured according to the standard ASTM D 3663-03 comprised between 130 and 180 m 2 /g, a mean mesopore diameter comprised between 14 and 20 nm, a sodium content comprised between 300 and 600 ppm by weight and a sulphur content comprised between 800 and 1300 ppm by weight; the bringing into contact being carried out at a temperature comprised between 350 and 500°C, at a total pressure comprised between 0.2 and 2 MPa and with a weight hourly space velocity (whsv) defined as being the ratio of the mass flow rate of ethanol and n-propanol to the mass of catalyst comprised between 1 and 10 h -1, b) an effluent containing ethylene and propylene is drawn off from said dehydration unit. a) the mixture is brought into contact, in a dehydration unit, with a dehydration catalyst chosen from: - an alumina having a BET specific surface area measured according to the standard ASTM D 3663-03 comprised between 200 and 280 m 2 /g, a mean mesopore diameter comprised between 5 and 15 nm, a sodium content of less than 50 ppm by weight and a sulphur content of less than 40 ppm by weight; and - an alumina having a BET specific surface area measured according to the standard ASTM D 3663-03 comprised between 130 and 180 m 2 /g, a mean mesopore diameter comprised between 14 and 20 nm, a sodium content comprised between 300 and 600 ppm by weight and a sulphur content comprised between 800 and 1300 ppm by weight; the bringing into contact being carried out at a temperature comprised between 350 and 500°C, at a total pressure comprised between 0.2 and 2 MPa and with a weight hourly space velocity (whsv) defined as being the ratio of the mass flow rate of ethanol and n-propanol to the mass of catalyst comprised between 1 and 10 h -1, - an alumina having a BET specific surface area measured according to the standard ASTM D 3663-03 comprised between 200 and 280 m 2 /g, a mean mesopore diameter comprised between 5 and 15 nm, a sodium content of less than 50 ppm by weight and a sulphur content of less than 40 ppm by weight; and - an alumina having a BET specific surface area measured according to the standard ASTM D 3663-03 comprised between 130 and 180 m 2 /g, a mean mesopore diameter comprised between 14 and 20 nm, a sodium content comprised between 300 and 600 ppm by weight and a sulphur content comprised between 800 and 1300 ppm by weight; b) an effluent containing ethylene and propylene is drawn off from said dehydration unit.
Combination comprising a first component (a) and a second component (b), wherein a) the first component comprises a Cas9 endonuclease capable of inducing a double stranded DNA break, fused with a first protein or protein domain, and b) the second component comprises an exonuclease selected from Exol, Exolll and mTREX2, fused to a second protein or protein domain, wherein the first and the second components are capable of heterodimerizing with each other via interaction of the first protein or protein domain and the second protein or protein domain wherein the first protein or protein domain and the second protein or protein domain are orthogonal protein partners P3 and P4 or N5 and N6, forming a coiled-coil structure, in particular a coiled-coil structure in parallel or antiparallel orientation. a) the first component comprises a Cas9 endonuclease capable of inducing a double stranded DNA break, fused with a first protein or protein domain, and b) the second component comprises an exonuclease selected from Exol, Exolll and mTREX2, fused to a second protein or protein domain, wherein the first and the second components are capable of heterodimerizing with each other via interaction of the first protein or protein domain and the second protein or protein domain wherein the first protein or protein domain and the second protein or protein domain are orthogonal protein partners P3 and P4 or N5 and N6, forming a coiled-coil structure, in particular a coiled-coil structure in parallel or antiparallel orientation.
An induction sealing device (15; 15') for heat sealing packaging material for producing sealed packages of pourable food products, comprising: - a first inductor (20, 21; 21') which comprises, in turn, a first active surface (25, 26; 26') adapted to be arranged on the side of said packaging material and to heat-seal said packaging material; and - a member (23, 23') made of plastic material; said member (23, 23') covers said first active surface (25, 26; 26') and is adapted to cooperate with said packaging material during the heat sealing of said packaging material, characterized in that said member (23, 23') of plastic material is integral with said first inductor (20, 21; 20', 21'), said member (23, 23') is a body of plastic material injection molded onto said first active surface (25, 26; 26') and firmly connected thereto. - a first inductor (20, 21; 21') which comprises, in turn, a first active surface (25, 26; 26') adapted to be arranged on the side of said packaging material and to heat-seal said packaging material; and - a member (23, 23') made of plastic material;
A substrate holder for holding a conductive substrate during plating thereof, comprising an attachment means, for attaching the conductive substrate to the substrate holder, such that a first surface of the substrate holder faces the second side of the conductive substrate; and resilient contact means, attached to the first surface of the substrate holder and connectable to at least one external potential, comprising an elastic layer applied to the first surface of the substrate holder, wherein the contact element is a compliant and conductive foil distally of said elastic layer.
Filling machine for filling containers with a liquid filling product, including a plurality of filling positions on a transport element which can be driven such as to circulate, for example, a rotor driven such as to circulate around a vertical machine axis, wherein the transport element comprises a rotor with a lower rotor part (3.1), and wherein each filling position comprises at least one filling element, a container carrier and a closure element, for example, in the form of a flushing cap or flushing sleeve, with said closure element being moved, by pivoting around at least one axis parallel to the machine axis, between a parked position and a working position, and said closure element is in each case secured to one end of a pivoting carrier in the form of an offset pivot arm, which is mounted by means of a joint bolt on the lower rotor part (3.1) such as to pivot around the axis parallel to the machine axis as well as, simultaneously, also being moved at the bolt in a guided manner in the direction of the machine axis, wherein each closure element can be moved by means of a drive (14, 15) between the parked position within the movement path of the filling elements and the working position, in which the respective closure element is arranged coaxially and below its allocated filling element, wherein a common actuator drive (14, 15) is provided for all the closure elements of the filling machine, wherein, for the pivoting in common of all the closure elements and their pivot arms respectively, a control ring or pivot ring is provided, which is arranged concentrically to the machine axis and can be rotated by a predetermined angle around the machine axis for the pivoting of the closure elements and the pivot arms respectively, a) characterised in that at each filling position a lift curve is provided, on which the respective pivot arm slides out of the parked position into the working position during pivoting, as a result of which the respective flushing sleeve is raised with this pivot arm simultaneously also in the direction of the machine axis, or b) that the pivot arm is mounted on a bearing element, wherein, when the pivot ring moves out of its initial position onto the bearing element in such a way that the pivot arm is moved away through the bearing element, the lift movement of the pivot arm is incurred by means of an oblique plane inside the bearing element. a) characterised in that at each filling position a lift curve is provided, on which the respective pivot arm slides out of the parked position into the working position during pivoting, as a result of which the respective flushing sleeve is raised with this pivot arm simultaneously also in the direction of the machine axis, or b) that the pivot arm is mounted on a bearing element,
A vehicle door trim board comprising: a reinforcing part made of an impact resistant resin containing a polyolefin resin, a polyamide resin, and a compatibilizer, wherein the compatibilizer is a modified elastomer having a reactive group that reacts with the polyamide resin, and the vehicle door trim board fulfills one of the following options (i) the vehicle door trim board further comprises an upper board part and a lower board part which are separated in a vertical direction, wherein the reinforcing part is interposed between the upper board part and the lower board part and the reinforcing part is provided in a band form so as to penetrate the vehicle door trim board in a front-back direction of a vehicle, or (ii) the vehicle door trim board further comprises an upper board part and a lower board part which are adjacent to each other in a vertical direction, wherein the reinforcing part covers at least a surface of a boundary zone between the upper board part and the lower board part. the compatibilizer is a modified elastomer having a reactive group that reacts with the polyamide resin, and the vehicle door trim board fulfills one of the following options (i) the vehicle door trim board further comprises an upper board part and a lower board part which are separated in a vertical direction, wherein the reinforcing part is interposed between the upper board part and the lower board part and the reinforcing part is provided in a band form so as to penetrate the vehicle door trim board in a front-back direction of a vehicle, or (ii) the vehicle door trim board further comprises an upper board part and a lower board part which are adjacent to each other in a vertical direction, wherein (i) the vehicle door trim board further comprises an upper board part and a lower board part which are separated in a vertical direction, wherein the reinforcing part is interposed between the upper board part and the lower board part and the reinforcing part is provided in a band form so as to penetrate the vehicle door trim board in a front-back direction of a vehicle, or (ii) the vehicle door trim board further comprises an upper board part and a lower board part which are adjacent to each other in a vertical direction, wherein the reinforcing part covers at least a surface of a boundary zone between the upper board part and the lower board part.
Method for operating a parking brake by a driver of a vehicle, wherein the parking brake is operated with the aid of a pushbutton which is configured to adopt at least two and, especially, three states, the method comprising: detecting the state of the pushbutton; coding the detected state; generating a check word for the coded state with the aid of a cyclic redundancy check; creating a message which is suitable for transmission via a single-wire channel and comprises the coded state and the check word; transmitting the message via a single-wire channel; wherein the message is created in response to a query. detecting the state of the pushbutton; coding the detected state; generating a check word for the coded state with the aid of a cyclic redundancy check; creating a message which is suitable for transmission via a single-wire channel and comprises the coded state and the check word; transmitting the message via a single-wire channel; wherein the message is created in response to a query.
A welding-type system for providing a plurality of welding cycles, each cycle including a peak portion, a transition down portion, a background portion, and a transition up portion, comprising: - an input circuit disposed to receive input power and to provide intermediate power; - a power circuit, having a power control input and at least one switch responsive to the power control input, and wherein the power circuit is disposed to receive intermediate power and provide welding-type output power to an output circuit, wherein the output power has an output voltage and an output cu rrent; - a feedback circuit, having a feedback signal responsive to at least one of the output voltage and responsive to the output current; and - a controller, that receives the feedback signal, and having a peak module, a transition down module, a background module, and a transition up module, wherein the controller sequentially activates the peak module, then the transition down module, then the background module, then the transition up module, and then back to the peak module, thereby commanding a welding cycle; wherein at least one of the peak module and the background module is a controlled voltage module, and at least one of the transition up module and transition down module is a controlled current module; and wherein the at least one of the transition up module and transition down module have a transition current command output that is responsive to output voltage, characterized in that the transition current command output for the at least one of the transition up module and transition down module is responsive to a difference between a desired transition voltage and a previous transition voltage during at least one prior welding output cycle. - an input circuit disposed to receive input power and to provide intermediate power; - a power circuit, having a power control input and at least one switch responsive to the power control input, and wherein the power circuit is disposed to receive intermediate power and provide welding-type output power to an output circuit, wherein the output power has an output voltage and an output cu rrent; - a feedback circuit, having a feedback signal responsive to at least one of the output voltage and responsive to the output current; and - a controller, that receives the feedback signal, and having a peak module, a transition down module, a background module, and a transition up module, wherein the controller sequentially activates the peak module, then the transition down module, then the background module, then the transition up module, and then back to the peak module, thereby commanding a welding cycle;