mhurhangee/ep-ind-claims huggingface dataset:
Support equipment (10; 110; 210) for a panel, said equipment (10; 110; 210) comprising: - a supporting base (20; 120; 220) provided with a seat (22; 122) which is open upwards and suited to receive the lower edge of said panel, and comprising a first side wall, a second side wall and a third wall (28; 128; 228) suited to interconnect said first side wall with said second side wall; - at least one adjustment device (40; 140; 240) for adjusting the inclination of said panel, said adjustment device (40; 140; 240) comprising a first lateral portion (42; 242) suited to be arranged between said first side wall of said supporting base (20; 120; 220) and a first outer face of said panel, a second lateral portion (44; 244) suited to be arranged between said second side wall of said supporting base (20; 120; 220) and a second outer face of said panel, and a third portion (46; 146; 246) suited to interconnect said first lateral portion (42; 242) with said second lateral portion (44; 244); wherein said adjustment device (40; 140; 240) comprises first connection means (50; 150; 250) and said supporting base (20; 120; 220) comprises second connection means (60; 160; 260) cooperating with said first connection means (50; 150; 250), wherein said first and second connection means (60; 160; 260) allow said third interconnecting portion (46; 146; 246) of said adjustment device (40; 140; 240) to be connected to said third interconnecting wall (28; 128; 228) of said supporting base (20; 120; 220) forming thereby a hinge area (80; 280) in order to enable at least one rotary movement of said third interconnecting portion (46; 146; 246) of said adjustment device (40; 140; 240) with respect to said supporting base (20; 120; 220) characterized in that said first lateral portion (42; 242) and said third interconnecting portion (46; 146; 246) of said adjustment device (40; 140; 240) are articulated at the level of said hinge area (80; 280) and/or said second lateral portion (44; 244) and said third interconnecting portion (46; 146; 246) of said adjustment device (40; 140; 240) are articulated at the level of said hinge area (80; 280). - a supporting base (20; 120; 220) provided with a seat (22; 122) which is open upwards and suited to receive the lower edge of said panel, and comprising a first side wall, a second side wall and a third wall (28; 128; 228) suited to interconnect said first side wall with said second side wall; - at least one adjustment device (40; 140; 240) for adjusting the inclination of said panel, said adjustment device (40; 140; 240) comprising a first lateral portion (42; 242) suited to be arranged between said first side wall of said supporting base (20; 120; 220) and a first outer face of said panel, a second lateral portion (44; 244) suited to be arranged between said second side wall of said supporting base (20; 120; 220) and a second outer face of said panel, and a third portion (46; 146; 246) suited to interconnect said first lateral portion (42; 242) with said second lateral portion (44; 244);
A cone mill comprising a rotating tool for moving friable material across a static conical screen, the tool being driven to rotate by a tool drive shaft (32.13), the mill includes a motor, the motor causing rotation of a motor drive shaft (31.15), the tool drive shaft (32.13) and the motor drive shaft (31.15) being located an angle with respect to each other, characterised in that the mill comprises a universal joint for transferring rotary motion from the motor through the angle to the tool.
A system for conveying information relating to operations for punching and pressing machines comprising: a punching or pressing machine; a display device configured to be selectively positioned and used on the machine, the display device configured to exhibit quantitative and qualitative information, the quantitative and qualitative information comprising detail and characteristics involving one or more programmed operations for the machine and tools therefor; and a console located remote from the display device, the quantitative and qualitative information provided to the display device via the console; and wherein the punching or pressing machine comprises a press brake, characterized in that the display device has one or more displays having touch screen functionality, wherein the display device is an interactive device, whereby one or more computer programmed operations for the machine and tooling via the console are changeable, such change being triggered via one or more external cues, wherein the external cues stem from the operator and comprise finger contacts made with screens of one or more of the displays, the contacts prompting corresponding change via the console; the one or more displays sized to extend across a corresponding extent of upper and lower tables (14a, 14b) of the press brake so as to exhibit corresponding extents of upper and lower beams (16a, 16b) and clamping statuses thereof and tooling and positions thereof on the beams across the upper and lower tables. a punching or pressing machine; a display device configured to be selectively positioned and used on the machine, the display device configured to exhibit quantitative and qualitative information, the quantitative and qualitative information comprising detail and characteristics involving one or more programmed operations for the machine and tools therefor; and a console located remote from the display device, the quantitative and qualitative information provided to the display device via the console; and wherein the punching or pressing machine comprises a press brake, characterized in that the display device has one or more displays having touch screen functionality, wherein the display device is an interactive device, whereby one or more computer programmed operations for the machine and tooling via the console are changeable, such change being triggered via one or more external cues, wherein the external cues stem from the operator and comprise finger contacts made with screens of one or more of the displays, the contacts prompting corresponding change via the console; the one or more displays sized to extend across a corresponding extent of upper and lower tables (14a, 14b) of the press brake so as to exhibit corresponding extents of upper and lower beams (16a, 16b) and clamping statuses thereof and tooling and positions thereof on the beams across the upper and lower tables.
A laser scanner, in particular a safety laser scanner, in accordance with the operating principle of the time of flight process for detecting objects in a monitored zone, comprising a light transmission unit having at least one light transmitter for transmitting a polarized transmitted light beam into the monitored zone; a light reception unit (24, 48) having at least one light receiver for detecting the polarization component of the light reflected in the monitored zone which is orthogonal to the polarization direction of the transmitted light beam and for generating a received signal corresponding to the detected orthogonal polarization component; and an evaluation unit which is configured to evaluate the time curve of the received signal of the detected orthogonal polarization component, characterized in that the evaluation unit is configured to carry out an object detection solely based on the received signal of the detected orthogonal polarization component. a light transmission unit having at least one light transmitter for transmitting a polarized transmitted light beam into the monitored zone; a light reception unit (24, 48) having at least one light receiver for detecting the polarization component of the light reflected in the monitored zone which is orthogonal to the polarization direction of the transmitted light beam and for generating a received signal corresponding to the detected orthogonal polarization component; and an evaluation unit which is configured to evaluate the time curve of the received signal of the detected orthogonal polarization component,
A method of manufacturing a screenprinting screen for obtaining glazings provided with electroconductive patterns, comprising the following steps: a) coating a mesh with a photocrosslinkable emulsion, then b) drying the mesh thus coated, then c) applying a self-supported photocrosslinkable film on at least one area, called film area (102, 104, 106), on one face of the coated mesh, then d) insolating the coated mesh in order to cross-link the photocrosslinkable emulsion and the, or each, self-supported photocrosslinkable film in predetermined areas called cross-linking areas, the cross-linking areas in at least a portion of the, or each, film zone being in the form of a network of points or lines, then e) washing the coated mesh to eliminate the emulsion and the, or each, self-supported film in the areas other than the cross-linking areas. a) coating a mesh with a photocrosslinkable emulsion, then b) drying the mesh thus coated, then c) applying a self-supported photocrosslinkable film on at least one area, called film area (102, 104, 106), on one face of the coated mesh, then d) insolating the coated mesh in order to cross-link the photocrosslinkable emulsion and the, or each, self-supported photocrosslinkable film in predetermined areas called cross-linking areas, the cross-linking areas in at least a portion of the, or each, film zone being in the form of a network of points or lines, then e) washing the coated mesh to eliminate the emulsion and the, or each, self-supported film in the areas other than the cross-linking areas.
A compressor control apparatus, comprising: one inverter provided with three pairs of switching elements in which one pair of the three pairs of switching elements is commonly connected to a first and a second compressor (C1, C2), and switched based on drive signals for each pair of switching elements, wherein a drive signal for one pair of the three pairs of switching elements has an operation frequency of the first and the second compressor (C1, C2), and drive signals for the other pairs of switching elements have carrier frequencies of the first and the second compressor (C1, C2), respectively; a control unit configured to generate an inverter control signal configured with the drive signals based on a load state of the first and the second compressor (C1, C2) and output it to the one inverter; and a drive unit configured to receive the inverter control signal and output the drive signals to the one inverter, wherein the carrier frequencies have a higher frequency than the operation frequency. one inverter provided with three pairs of switching elements in which one pair of the three pairs of switching elements is commonly connected to a first and a second compressor (C1, C2), and switched based on drive signals for each pair of switching elements, wherein a drive signal for one pair of the three pairs of switching elements has an operation frequency of the first and the second compressor (C1, C2), and drive signals for the other pairs of switching elements have carrier frequencies of the first and the second compressor (C1, C2), respectively; a control unit configured to generate an inverter control signal configured with the drive signals based on a load state of the first and the second compressor (C1, C2) and output it to the one inverter; and a drive unit configured to receive the inverter control signal and output the drive signals to the one inverter, wherein the carrier frequencies have a higher frequency than the operation frequency.
A compound of structural formula IV: or a salt or ester thereof, wherein: Rz is chosen from OH, NR 8, R 9, NR 8 OR 9; R 1 is chosen from aryl and heteroaryl, either of which may be optionally substituted with one or more substituents chosen from hydrogen, halo, alkyl, alkenyl, alkynyl, cycloalkyl, haloalkyl, aryl, aralkyl, heterocyclyl, heteroaryl, heterarylalkyl, CN, alkoxy, alkylamino, dialkylamino, NHSO 2 R 12, NHSO 2 NHR 12, NHCOR 12, NHCONHR 12, CONHR 12, CONR 12a R 12b, hydroxy, SO 2 R 12, SO 2 NHR 12, CF 3, and OCF 3; R 3 is chosen from hydrogen, hydroxyl, C 1 -C 5 alkyl, and C 1 -C 5 alkoxy, any of which may be optionally substituted; R 5 and R 6 are independently chosen from hydrogen, C 1 -C 6 alkyl, C 1 -C 7 cycloalkyl, C 1 -C 7 heterocycloalkyl, C 1 -C 6 alkenyl, C 1 -C 6 alkynyl, aryl, heteroaryl, aralkyl, and heteroaralkyl, or taken together, R 5 and R 6 may form a heterocycloalkyl or heteroaryl, any of which may be optionally substituted; R 8 and R 9 are each independently chosen from hydrogen, C 1 -C 6 alkyl, aryl, heteroaryl, aralkyl and heteroaralkyl, any of which may be optionally substituted; and R 12, R 12a and R 12b are independently chosen from hydrogen, C 1 -C 6 alkyl, aryl, heteroaryl, aralkyl, CF 3 and heteroaralkyl, any of which may be optionally substituted. Rz is chosen from OH, NR 8, R 9, NR 8 OR 9; R 1 is chosen from aryl and heteroaryl, either of which may be optionally substituted with one or more substituents chosen from hydrogen, halo, alkyl, alkenyl, alkynyl, cycloalkyl, haloalkyl, aryl, aralkyl, heterocyclyl, heteroaryl, heterarylalkyl, CN, alkoxy, alkylamino, dialkylamino, NHSO 2 R 12, NHSO 2 NHR 12, NHCOR 12, NHCONHR 12, CONHR 12, CONR 12a R 12b, hydroxy, SO 2 R 12, SO 2 NHR 12, CF 3, and OCF 3; R 3 is chosen from hydrogen, hydroxyl, C 1 -C 5 alkyl, and C 1 -C 5 alkoxy, any of which may be optionally substituted; R 5 and R 6 are independently chosen from hydrogen, C 1 -C 6 alkyl, C 1 -C 7 cycloalkyl, C 1 -C 7 heterocycloalkyl, C 1 -C 6 alkenyl, C 1 -C 6 alkynyl, aryl, heteroaryl, aralkyl, and heteroaralkyl, or taken together, R 5 and R 6 may form a heterocycloalkyl or heteroaryl, any of which may be optionally substituted; R 8 and R 9 are each independently chosen from hydrogen, C 1 -C 6 alkyl, aryl, heteroaryl, aralkyl and heteroaralkyl, any of which may be optionally substituted; and R 12, R 12a and R 12b are independently chosen from hydrogen, C 1 -C 6 alkyl, aryl, heteroaryl, aralkyl, CF 3 and heteroaralkyl, any of which may be optionally substituted.
Non-return device for transmitting a rotational movement including two coaxial input and output shafts, a frame for rotatably guiding the shafts (2, 3), a locking element movable in radial translation through a duct of the output shaft between a locked position in which said locking element projects out of said duct so as to prevent a rotation of the output shaft and a radial unlocked position in which the locking element is retracted so as to allow the axial rotation of the output shaft, the input shaft including means for switching the locking element between its locked and unlocked positions, the switching means of the locking element including a cam with a profile which is adapted to displace the locking element radially during a rotation of the input shaft, characterised in that the input shaft comprises a shoulder which abuts against a flat part of the output shaft in order to rotate the output shaft, the shoulder reaching the abutment during a rotation of the input shaft coinciding angularly with the cam placing the locking element in the unlocked position. the switching means of the locking element including a cam with a profile which is adapted to displace the locking element radially during a rotation of the input shaft, characterised in that the input shaft comprises a shoulder which abuts against a flat part of the output shaft in order to rotate the output shaft, the shoulder reaching the abutment during a rotation of the input shaft coinciding angularly with the cam placing the locking element in the unlocked position.
An element substrate comprising: a plurality of print elements; and a plurality of drive elements provided in correspondence with said plurality of print elements and configured to drive said plurality of print elements; a generation circuit configured to generate a single reference voltage, a first ramp wave having a first slope, and a second ramp wave having a second slope; characterized by a comparison circuit configured to compare the single reference voltage with the first and second ramp waves; and a driving circuit configured to generate a plurality of double-pulses from a result of comparison of said comparison circuit and to apply the double-pulses to said plurality of drive elements, wherein the pulse widths of each double-pulse are controlled via the first and second slope of the first and second ramp wave and the single reference voltage. a plurality of print elements; and a plurality of drive elements provided in correspondence with said plurality of print elements and configured to drive said plurality of print elements; a generation circuit configured to generate a single reference voltage, a first ramp wave having a first slope, and a second ramp wave having a second slope; characterized by a comparison circuit configured to compare the single reference voltage with the first and second ramp waves; and a driving circuit configured to generate a plurality of double-pulses from a result of comparison of said comparison circuit and to apply the double-pulses to said plurality of drive elements, wherein the pulse widths of each double-pulse are controlled via the first and second slope of the first and second ramp wave and the single reference voltage.
A dihydroartemisinin-steroid conjugate or a pharmaceutically-acceptable salt thereof, characterized in that the dihydroartemisinin-steroid conjugate is selected from:
A plant based gelling fibre having water gel strength ranging from 100 g/cm 2 to 1000 g/cm 2, and antioxidant capacity ranging from 2mg GAE/g dry weight to 10mg GAE/g dry weight.
A wavelength negotiation method of a multi-wavelength passive optical network, PON, comprising: receiving a wavelength status table that is broadcast by an optical line terminal, OLT, over each downstream wavelength channel of a multi-wavelength PON system, wherein the wavelength status table is used to indicate information about available wavelengths of the multi-wavelength PON system and the number of optical network units, ONUs, registered with a corresponding wavelength channel; selecting an upstream transmit wavelength and a downstream receive wavelength with a smaller number of registered ONUs according to the number of ONUs registered with a wavelength channel corresponding to the information about the upstream transmit wavelength and information about the downstream receive wavelength in the wavelength status table; and reporting information about the upstream transmit wavelength and information about the downstream receive wavelength to the OLT so that the OLT refreshes the wavelength status table. receiving a wavelength status table that is broadcast by an optical line terminal, OLT, over each downstream wavelength channel of a multi-wavelength PON system, wherein the wavelength status table is used to indicate information about available wavelengths of the multi-wavelength PON system and the number of optical network units, ONUs, registered with a corresponding wavelength channel; selecting an upstream transmit wavelength and a downstream receive wavelength with a smaller number of registered ONUs according to the number of ONUs registered with a wavelength channel corresponding to the information about the upstream transmit wavelength and information about the downstream receive wavelength in the wavelength status table; and reporting information about the upstream transmit wavelength and information about the downstream receive wavelength to the OLT so that the OLT refreshes the wavelength status table.
A method for identifying stem cells, which comprises analyzing the patterns of methylation and demethylation of chromosomal DNA extracted from test stem cells, comparing the analytical results with the methylation and demethylation states with reference stem cells, and correlating the analyzed patterns with the properties of the test stem cells; wherein the properties of stem cells are used to characterize the stage of passage or differentiation; wherein the analysis of the patterns of methylation and demethylation is carried out by methylated DNA immunoprecipitation (MeDIP) and hydroxymethylated DNA immunoprecipitation (hMeDIP), a hybridization treatment using a microarray, a treatment of probability values of signal data obtained by the hybridization treatment, and the mapping of the probability values; and wherein the mapping of the probability values comprises: a step of assigning the methylation probability values P m and demethylation probability values P hm of individual probes on a microarray to probe numbers which correspond to the positions on the chromosome, a step of selecting the probe number n (wherein n is an integer) of a test stem cell and the microarray probe number n' (wherein n' is an integer) of a reference stem cell corresponding to the probe number n, a step of obtaining the ratios (r m = P m(n) / P m(n') and r hm = P hm(n) / P hm(n')) of the probability values P m(n) and P hm(n) assigned to the probe number n to the probability values P m(n') and P hm(n') assigned to the probe number n', a step of repeating the step from the continuous probe numbers n to n + i (wherein i is an integer) and then counting the number S r of the ratio r m that is in the range of 0.5 to 1.5 and the number S r of r hm that is in the range of 0.5 to 1.5, and regarding each of the methylation probability values R m and the demethylation probability values R hm, a step of obtaining the following correlation percentage: R % = S r / i + 1 × 100. a step of assigning the methylation probability values P m and demethylation probability values P hm of individual probes on a microarray to probe numbers which correspond to the positions on the chromosome, a step of selecting the probe number n (wherein n is an integer) of a test stem cell and the microarray probe number n' (wherein n' is an integer) of a reference stem cell corresponding to the probe number n, a step of obtaining the ratios (r m = P m(n) / P m(n') and r hm = P hm(n) / P hm(n')) of the probability values P m(n) and P hm(n) assigned to the probe number n to the probability values P m(n') and P hm(n') assigned to the probe number n', a step of repeating the step from the continuous probe numbers n to n + i (wherein i is an integer) and then counting the number S r of the ratio r m that is in the range of 0.5 to 1.5 and the number S r of r hm that is in the range of 0.5 to 1.5, and regarding each of the methylation probability values R m and the demethylation probability values R hm, a step of obtaining the following correlation percentage: R % = S r / i + 1 × 100.
Method for operating a motor vehicle using a longitudinal guiding system which comprises a sensor system which has both a short-range sensor system (7, 8) and a long-range sensor system and which is used to detect objects in the region in front of the vehicle, the motor vehicle being braked to a standstill in a manner controlled by the longitudinal guiding system and automatically moving off, depending on the result of the detection, when at least one enabling signal to be issued by the driver is provided, the motor vehicle, which is behind another vehicle detected by the sensor system, moving off when the other vehicle is detected moving off, despite the simultaneous detection of an additional obstruction (14, 16, 18) located in the region in front of the vehicle, at an acceleration which is slower than the acceleration during moving off when there are no obstructions in the region in front of the vehicle, and without the driver immediately beforehand issuing a moving-off signal which enables this moving off, characterised in that automatic moving off is disabled if the short-range sensor system (7, 8) is faulty or not operational.