mhurhangee/ep-ind-claims huggingface dataset:
A method for conveying rod-shaped articles (21, 22) of the tobacco-processing industry, in particular filter cigarettes or the rod-shaped components thereof, wherein the rod-shaped articles (21, 22) are conveyed transversely to the axis in receiving troughs of conveying drums (31, 32, 33) as the conveying drums (31, 32, 33) rotate, wherein the conveying drums (31, 32, 33) which rotate or can rotate in each case about an own axis of rotation are arranged behind one another in the transverse axial conveying direction of the rod-shaped articles (21, 22), wherein the rod-shaped articles (21, 22) arranged behind one another in at least one row transversely to the axis are transferred from a conveying drum (31, 32, 33) to a subsequent conveying drum (31, 32, 33), wherein in the event of a change of the rod-shaped articles which are to be conveyed from rod-shaped articles of a first type having a predetermined diameter to rod-shaped articles of a second type having a predetermined diameter, wherein the diameter of the articles of the first type and the diameter of the articles of the second type differ from one another, the pitch spacing of the receiving troughs of at least one conveying drum (31, 32, 33) is altered as a function of the rod-shaped articles which are to be conveyed in such a manner that the spacing between at least one contact surface of the receiving troughs of the conveying drum (31, 32, 33) and the axis of rotation of the conveying drums (31, 32, 33) for the rod-shaped articles (21, 22) of the first type and the spacing between the same contact surface of the same receiving troughs of the conveying drum (31, 32, 33) and the axis of rotation of the conveying drums (31, 32, 33) for the articles of the second type are different, characterized in that the position of the receiving troughs of the conveying drums (31, 32, 33) is modified by displacing the receiving troughs in the radial direction based on the axis of rotation of the conveying drums (31, 32, 33).
A suspension system for a vehicle comprising: a pivotable control arm having a first end connectable to a wheel carrier and a second end connectable to an inboard component of the vehicle; a rotary actuator; and a linkage connecting the rotary actuator to the control arm, so that torque applied to the linkage by the rotary actuator is translated into a force which acts on the control arm to pivot the control arm and a wheel carrier connected to said first end, relative to said inboard component of the vehicle; wherein the rotary actuator comprises an output shaft and the linkage comprises a torque transfer arm attached to the output shaft and a pushrod to connect the torque transfer arm to the control arm; wherein the rotary actuator comprises a housing mountable to an inboard component of the vehicle; and wherein the torque transfer arm comprises an axle rotatably mounted in the housing by a bearing located in the housing on either side of a slot in the housing, the torque transfer arm extending from said slot. a pivotable control arm having a first end connectable to a wheel carrier and a second end connectable to an inboard component of the vehicle; a rotary actuator; and a linkage connecting the rotary actuator to the control arm, so that torque applied to the linkage by the rotary actuator is translated into a force which acts on the control arm to pivot the control arm and a wheel carrier connected to said first end, relative to said inboard component of the vehicle; wherein the rotary actuator comprises an output shaft and the linkage comprises a torque transfer arm attached to the output shaft and a pushrod to connect the torque transfer arm to the control arm; wherein the rotary actuator comprises a housing mountable to an inboard component of the vehicle; and wherein the torque transfer arm comprises an axle rotatably mounted in the housing by a bearing located in the housing on either side of a slot in the housing, the torque transfer arm extending from said slot.
Measurement device for a liquid meter with swing piston comprising: - a hollow chamber pierced with at least one inlet opening and at least one outlet opening and limited by a cylindrical lateral wall, a bottom, and a cover; - a piston enclosed in said chamber and held mobile, along a partition, around a well; wherein said cover is covered by a filtering membrane, characterized in said filtering membrane having at least two surface zones (7a, 7b) produced with portions of filtering membranes with filters of differing degrees of levels of filtration. - a hollow chamber pierced with at least one inlet opening and at least one outlet opening and limited by a cylindrical lateral wall, a bottom, and a cover; - a piston enclosed in said chamber and held mobile, along a partition, around a well; wherein said cover is covered by a filtering membrane, characterized in said filtering membrane having at least two surface zones (7a, 7b) produced with portions of filtering membranes with filters of differing degrees of levels of filtration.
An immunoglobulin single variable domain that is a heavy chain variable domain sequence and that can displace HGF from human c-Met (SEQ ID NO: 1) with an IC50 of less than 10nM and a maximal HGF displacement level of 60% to 80% or more, wherein the immunoglobulin single variable domain comprises an amino acid sequence with the formula 1 FR1 - CDR1 - FR2 - CDR2 - FR3 - CDR3 - FR4; wherein FR1 to FR4 refer to framework regions 1 to 4 and are framework regions of an immunoglobulin single variable domain; and wherein: a) CDR1 consists of SEQ ID NO: 51; b) CDR2 consists of SEQ ID NO: 67; and c) CDR3 consists of SEQ ID NO: 83; or wherein: d) CDR1 consists of SEQ ID NO: 160; e) CDR2 consists of SEQ ID NO: 170; and f) CDR3 consists of SEQ ID NO: 180. a) CDR1 consists of SEQ ID NO: 51; b) CDR2 consists of SEQ ID NO: 67; and c) CDR3 consists of SEQ ID NO: 83; d) CDR1 consists of SEQ ID NO: 160; e) CDR2 consists of SEQ ID NO: 170; and f) CDR3 consists of SEQ ID NO: 180.
A compound of formula 1 wherein R 1 and R 2 are independently a group removable by hydrogenolysis; and R 3 is selected from a group removable by hydrogenolysis and H; or a hydrate or solvate thereof.
A method for preparing a functionalized graphene comprising: forming a mixture including a graphite oxide, water, and thiourea; pre-heating the mixture to 200 to 400°C; forming the functionalized graphene by reacting the mixture under a supercritical condition of the solvent; and recovering the functionalized graphene. forming a mixture including a graphite oxide, water, and thiourea; pre-heating the mixture to 200 to 400°C; forming the functionalized graphene by reacting the mixture under a supercritical condition of the solvent; and recovering the functionalized graphene.
A white-light-emitting tandem OLED device having spaced anode and cathode comprising: a. first and second light-emitting units disposed between the cathode and anode; b. an intermediate connector comprising an n-type layer and a p-type layer disposed between the first and second light-emitting units; and c. a fluoranthene-containing electron-transporting layer adjacent to the n-type layer of the intermediate connector and comprising at least 25% of a 7,10-diaryl-substituted fluoranthene compound having no aromatic rings annulated to the fluoranthene nucleus. a. first and second light-emitting units disposed between the cathode and anode; b. an intermediate connector comprising an n-type layer and a p-type layer disposed between the first and second light-emitting units; and c. a fluoranthene-containing electron-transporting layer adjacent to the n-type layer of the intermediate connector and comprising at least 25% of a 7,10-diaryl-substituted fluoranthene compound having no aromatic rings annulated to the fluoranthene nucleus.
Method for producing plastic parts with a coated surface, wherein the plastic part is formed from a thermoplastic moulding compound and then a coating layer is applied onto the surface of the plastic part, and wherein as a thermoplastic moulding compound a magnetisable polymer composition is used and the moulding compound is magnetised during or after the formation of the plastic part partly by application of a magnetic field and in a following step a coating containing magnetically orientable particles is applied to form the coating layer on the surface of the formed plastic part, characterised in that from the thermal moulding compound firstly a magnetisable monofilament thread is extruded and the thread is formed into the plastic part in a 3D-printer and the moulding compound is firstly oriented uniformly magnetically during the formation of the plastic part by applying a magnetic field and is then magnetised by the application of an opposing magnetic field partly with reverse orientation and then the coating layer is applied onto the surface of the formed plastic part.
A signal transmission method in a radio multiplex transmission system, the signal transmission method comprising the steps of: serial-to-parallel converting serial data to be transmitted into M, where M is two or more, parallel data series; independently performing an error-correcting encoding process on parallel signals of the M data series serial-to-paraliel converted; parallel-to-serial converting the parallel signals encoded with error-correcting codes; performing an interleaving process on the parallel-to-serial converted signals; and serial-to-parallel converting the interleaved signals into N, where N is two or more, parallel data series and transmitting the N parallel data series using a plurality of transmission antennas. serial-to-parallel converting serial data to be transmitted into M, where M is two or more, parallel data series; independently performing an error-correcting encoding process on parallel signals of the M data series serial-to-paraliel converted; parallel-to-serial converting the parallel signals encoded with error-correcting codes; performing an interleaving process on the parallel-to-serial converted signals; and serial-to-parallel converting the interleaved signals into N, where N is two or more, parallel data series and transmitting the N parallel data series using a plurality of transmission antennas.
A device for simplifying the work involved in the manufacture of a component for a wind turbine rotor blade in a manufacturing mould, wherein the device comprises the following: • a running frame which has a running surface that is provided for arrangement at the manufacturing mould, and • a gantry trolley with a crossbar and, connected thereto, a lateral support, on which wheels are arranged, wherein the gantry trolley is provided for travelling along the manufacturing mould when the crossbar is arranged above the manufacturing mould, characterised in that • the running surface has an opening through which the support can be guided. • a running frame which has a running surface that is provided for arrangement at the manufacturing mould, and • a gantry trolley with a crossbar and, connected thereto, a lateral support, on which wheels are arranged, wherein the gantry trolley is provided for travelling along the manufacturing mould when the crossbar is arranged above the manufacturing mould, characterised in that • the running surface has an opening through which the support can be guided.
A flexible flat cable connector configured to electrically connect a flexible flat cable and the outside together, comprising: a recessed portion configured to accommodate an end portion of the flexible flat cable; a bottom wall provided on the recessed portion; paired side walls (46, 46) disposed at both ends of the recessed portion and facing each other in a width direction of the flexible flat cable, a plurality of protruding portions provided on the bottom wall; and paired projections (48, 48) integrally extending from the paired side walls (46, 46) and facing each other, characterized in that the paired projections (48,48) are spaced apart from the bottom wall to accommodate both width-direction end portions of the flexible flat cable in the space between the paired projections (48, 48) and the bottom wall and to restrict movement of the flexible flat cable in the thickness direction thereof from the bottom wall when the flexible flat cable is accommodated. a recessed portion configured to accommodate an end portion of the flexible flat cable; a bottom wall provided on the recessed portion; paired side walls (46, 46) disposed at both ends of the recessed portion and facing each other in a width direction of the flexible flat cable, a plurality of protruding portions provided on the bottom wall; and paired projections (48, 48) integrally extending from the paired side walls (46, 46) and facing each other, characterized in that the paired projections (48,48) are spaced apart from the bottom wall to accommodate both width-direction end portions of the flexible flat cable in the space between the paired projections (48, 48) and the bottom wall and to restrict movement of the flexible flat cable in the thickness direction thereof from the bottom wall when the flexible flat cable is accommodated.
A method for identifying a reason for an overcurrent in an electric cable, comprising: step 1), detecting whether a single-phase overcurrent occurs in three-phase current signals; step 2), determining an indicator feature vector sample of an overcurrent phase current signal in a case that it is detected that the single-phase overcurrent occurs in the three-phase current signals; step 3), calculating association coefficients between the indicator feature vector sample and predetermined indicator vector reference samples of indicators, wherein the indicator vector reference samples respectively correspond to reasons for the single-phase overcurrent; step 4), calculating association degrees between the indicator feature vector sample and the predetermined indicator vector reference samples based on a predetermined indicator weight vector and the association coefficients corresponding to the indicators; and step 5), finding a reason for the single-phase overcurrent, which corresponds to an indicator vector reference sample having a maximal association degree, characterized in that, the determining the indicator feature vector sample of the overcurrent phase current signal in the three-phase current signals in step 2) comprises: performing a wavelet transform on the three-phase current signals in the electric cable by using a db4 wavelet; performing a five-layer discomposing on the transformed three-phase current signals to obtain five layers of high-frequency detail coefficients, one layer of low-frequency approximate coefficient, the sum of energy values of the layers of detail coefficients, an effective value of the overcurrent phase current and a duration of the overcurrent; and determining thereby nine indicators as the indicator feature vector sample. step 1), detecting whether a single-phase overcurrent occurs in three-phase current signals; step 2), determining an indicator feature vector sample of an overcurrent phase current signal in a case that it is detected that the single-phase overcurrent occurs in the three-phase current signals; step 3), calculating association coefficients between the indicator feature vector sample and predetermined indicator vector reference samples of indicators, wherein the indicator vector reference samples respectively correspond to reasons for the single-phase overcurrent; step 4), calculating association degrees between the indicator feature vector sample and the predetermined indicator vector reference samples based on a predetermined indicator weight vector and the association coefficients corresponding to the indicators; and step 5), finding a reason for the single-phase overcurrent, which corresponds to an indicator vector reference sample having a maximal association degree,
A double-stranded ribonucleic acid (dsRNA) for inhibiting expression of a PROC gene, wherein the dsRNA comprises a sense strand and an antisense strand each 30 nucleotides or less in length, wherein the antisense strand comprises at least 15 contiguous nucleotides of the sequence of SEQ ID NO: 212.
A method for detecting movement of a subject, the subject being located inside a magnetic resonance imaging device, the method comprising the steps: a) Providing at least one input signal (10, 12); b) Using the at least one input signal (10, 12) to generate a higher pilot tone signal having a transmission frequency which is at least twice as high as the Larmor frequency of the magnetic resonance imaging device; c) Transmitting the higher pilot tone signal towards the subject using a transmitting antenna, the transmitted higher pilot tone signal interacting with the subject; d) Receiving the transmitted higher pilot tone signal using a receiving antenna; e) Using the at least one input signal to convert the frequency of the transmitted higher pilot tone signal to an intermediate frequency which is equal to or lower than the frequency of the or one of the at least one input signal(s), thereby generating a transmitted pilot tone signal; and f) Forwarding the transmitted pilot tone signal to an analysis system to detect changes in the transmitted higher pilot tone signal caused by movement of the subject. a) Providing at least one input signal (10, 12); b) Using the at least one input signal (10, 12) to generate a higher pilot tone signal having a transmission frequency which is at least twice as high as the Larmor frequency of the magnetic resonance imaging device; c) Transmitting the higher pilot tone signal towards the subject using a transmitting antenna, the transmitted higher pilot tone signal interacting with the subject; d) Receiving the transmitted higher pilot tone signal using a receiving antenna; e) Using the at least one input signal to convert the frequency of the transmitted higher pilot tone signal to an intermediate frequency which is equal to or lower than the frequency of the or one of the at least one input signal(s), thereby generating a transmitted pilot tone signal; and f) Forwarding the transmitted pilot tone signal to an analysis system to detect changes in the transmitted higher pilot tone signal caused by movement of the subject.
A process for producing a surface-modified molded article, wherein a surface of the molded article containing an organic polymer compound selected from a fluororesin is subjected to an atmospheric pressure plasma treatment to introduce a peroxide radical with adjusting the surface temperature of the molded article to melting point of the organic polymer compound - 120°C or higher, and melting point + 20°C or lower, an oxygen concentration during the plasma treatment is in the range from 0.0005% to 0.3%, and a modified surface of the molded article has an indentation hardness by nano-indentation, measured as defined in the description, of 1.4 times or more than that of the surface of the molded article before the atmospheric-pressure plasma treatment is carried out.
Lift installation with a cage, which is guided by a first cage guide and a second cage guide, and a counterweight, which is guided by counterweight guides (9, 9'), and with a gearless drive engine (1, 2, 3, 3', 4), which is mounted on a crossbeam and which moves the cage and counterweight, which are interconnected by way of drive means (9, 19'), in a shaft, wherein the gearless drive engine (1, 2, 3, 3', 4) is arranged in a region largely above the travel path of the counterweight and the crossbeam is fastened by way of each of two end regions to a respective counterweight guide (9, 9') and by a central region to the first cage guide, characterised in that the counterweight guides (9, 9') and the first cage guide are fastened to a first wall, which first wall is closest to the counterweight guides (9, 9') as well as the cage guide, the second cage guide is fastened to a second wall, which second wall is closest to the second cage guide and opposite the first wall, and the drive means (19, 19') are belts, wherein load-bearing regions of the drive means (19, 19') consist of steel and the belt at the outer side is structured or is unstructured so as to be smooth.
An apparatus comprising: a power converter having input terminals (614, 616) and output terminals (612, 610) and being operative to convert input power received from a direct current power source at the input terminals to an output power at the output terminals; an input sensor (703, 704) coupled to the input terminals and configured to sense an input parameter which includes an input current, an input voltage, or the input power; and a control circuit configured to maximize the input power to a maximum power point at the input terminals based on the input parameter, wherein, for at least a time interval, the control circuit is configured to maintain the input power at the maximum power point and to set output power of the power converter to measurably less than the maximum power point, and after the time interval, the control circuit is configured to set the input power or the output power to equal to the maximum power point. a power converter having input terminals (614, 616) and output terminals (612, 610) and being operative to convert input power received from a direct current power source at the input terminals to an output power at the output terminals; an input sensor (703, 704) coupled to the input terminals and configured to sense an input parameter which includes an input current, an input voltage, or the input power; and a control circuit configured to maximize the input power to a maximum power point at the input terminals based on the input parameter, wherein, for at least a time interval, the control circuit is configured to maintain the input power at the maximum power point and to set output power of the power converter to measurably less than the maximum power point, and after the time interval, the control circuit is configured to set the input power or the output power to equal to the maximum power point.