mhurhangee/ep-ind-claims huggingface dataset:
Forming apparatus with a machine bed, a tool holder to hold a tool and mounted movably relative to the machine bed, a drive unit connected to the tool holder, a machine control for operating the drive unit, and a monitoring device designed for monitoring movements of the tool holder and for provision of a shutdown signal to a disconnector upstream of the drive unit, if a presettable monitoring event occurs, wherein the monitoring device includes at least one radiation source and several radiation detectors (28 to 32; 128 to 132) mounted opposite the radiation source, and wherein at least one portion of the beam emitted from the radiation source is aligned along a working edge of the tool, together with a first distance measuring system and with a second distance measuring system, each designed to emit position signals to determine a position of the tool holder relative to the machine bed, wherein the machine control is connected to the first distance measuring system for operation of the drive unit, characterised in that the first distance measuring system is designed for cyclical provision of first position signals in a first, rapid, work cycle, and that the second distance measuring system is designed for cyclical provision of second position signals in a second slow work cycle, wherein the monitoring device is so designed for comparison of the first and second position signals that, in the presence of a position signal of the first distance measuring system indicating a reaching of a presettable position of the tool holder relative to the machine bed, a comparison is made with the second position signal, and that deactivation of at least one radiation detector (28 to 32; 128 to 132) takes place if, in the comparison, a difference between the first and second position signal is undershot, so that a closing movement of the tool holder relative to the machine bed may be continued.
A method for detecting a target molecule, comprising: a step of preparing a plurality of types of specific binding substances which are labeled with a plurality of nucleic acid fragments each having a labeling substance that generates a fluorescence signal of a different fluorescence wavelength, and which each recognize a different epitope, and preparing a first target molecule; a step of binding the plurality of types of specific binding substances to the first target molecule; a step of respectively detecting the plurality of types of specific binding substances; and a step of determining the first target molecule by a plurality of the fluorescence signals corresponding to the plurality of types of specific binding substances; wherein a second target molecule having at least one of the first target molecule is prepared; and the second target molecule is detected via detection of at least one of the first target molecule; wherein the plurality of types of specific binding substances is detected by using Invader method a step of preparing a plurality of types of specific binding substances which are labeled with a plurality of nucleic acid fragments each having a labeling substance that generates a fluorescence signal of a different fluorescence wavelength, and which each recognize a different epitope, and preparing a first target molecule; a step of binding the plurality of types of specific binding substances to the first target molecule; a step of respectively detecting the plurality of types of specific binding substances; and a step of determining the first target molecule by a plurality of the fluorescence signals corresponding to the plurality of types of specific binding substances;
Process to manufacture a spun-dyed para-aramid filament yarn, wherein the process comprises the steps of a) preparing a spin dope comprising a para-aramid polymer, at least one dyestuff and concentrated sulfuric acid, b) spinning the spin dope through a spinneret to obtain spun filaments, c) coagulating the spun filaments to obtain coagulated filaments, d) neutralizing the coagulated filaments to obtain neutralized filaments, e) washing the neutralized filaments to obtain washed filaments, and f) drying the washed filaments to obtain dried filaments, characterized in that in step a) the spin dope is prepared of 17.5 to 18.5 % by weight of a para-aramid polymer with respect to the weight of the spin dope, and 4 to 15 % by weight of the at least one dyestuff with respect to the weight of the para-aramid polymer plus the at least one dyestuff, and in step f) during drying the filaments are hold under a tension in a range from 0.2 to 0.8 cN/dtex. a) preparing a spin dope comprising a para-aramid polymer, at least one dyestuff and concentrated sulfuric acid, b) spinning the spin dope through a spinneret to obtain spun filaments, c) coagulating the spun filaments to obtain coagulated filaments, d) neutralizing the coagulated filaments to obtain neutralized filaments, e) washing the neutralized filaments to obtain washed filaments, and f) drying the washed filaments to obtain dried filaments,
A pull-out guide for a furniture part that is movable relative to a furniture carcass, in particular for a drawer, having - a carcass rail to be connected to the furniture carcass, - a drawer rail which is mounted movably on the carcass rail and which is connectable to the movable furniture part and has a longitudinal axis, wherein the drawer rail is movable along the longitudinal axis in an opening and closing direction (OR, SR) of the movable furniture part, - a drive device for moving the drawer rail and the movable furniture part that is connectable thereto at least in a partial range of the movement travel between a closed position and an open position, and - a depth adjustment means for adjusting the closed position of the drawer rail relative to the carcass rail, wherein the depth adjustment means has a carrier, a stop element, which is movable relative to the carrier along the longitudinal axis, and a depth adjustment wheel, which is mounted on the carrier so as to be rotatable about an axis of rotation, for moving the stop element along the longitudinal axis, wherein - the axis of rotation of the depth adjustment wheel is oriented parallel to the longitudinal axis, - the drive device is installed on the carcass rail, - the stop element, in the closed position, bears against a stop counterpart of the drive device and, during the movement travel from the closed position into an open position, can be separated from the stop counterpart, characterized in that the carrier of the depth adjustment means is mounted on the drawer rail. - a carcass rail to be connected to the furniture carcass, - a drawer rail which is mounted movably on the carcass rail and which is connectable to the movable furniture part and has a longitudinal axis, wherein the drawer rail is movable along the longitudinal axis in an opening and closing direction (OR, SR) of the movable furniture part, - a drive device for moving the drawer rail and the movable furniture part that is connectable thereto at least in a partial range of the movement travel between a closed position and an open position, and - a depth adjustment means for adjusting the closed position of the drawer rail relative to the carcass rail, wherein the depth adjustment means has a carrier, a stop element, which is movable relative to the carrier along the longitudinal axis, and a depth adjustment wheel, which is mounted on the carrier so as to be rotatable about an axis of rotation, for moving the stop element along the longitudinal axis, - the axis of rotation of the depth adjustment wheel is oriented parallel to the longitudinal axis, - the drive device is installed on the carcass rail, - the stop element, in the closed position, bears against a stop counterpart of the drive device and, during the movement travel from the closed position into an open position, can be separated from the stop counterpart,
Process for preparing ciclesonide of formula 1, characterised in that a compound of formula 2 wherein R 1 may denote Br, I or Cl, is reacted with a salt of formula wherein X + denotes alkali metal ions or N(R 2) 4 +, wherein R 2 denotes C 1-6 -alkyl. X + denotes alkali metal ions or N(R 2) 4 +, wherein R 2 denotes C 1-6 -alkyl.
A photovoltaic cell comprising a transparent front-plane, an opaque back-plane and an encapsulant resin wherein said back-plane comprises a polyester film comprising a base layer comprising a crystallisable polyester and a heat-sealable layer comprising an amorphous copolyester wherein: (i) said amorphous copolyester is derived from an aliphatic diol and a cycloaliphatic diol and at least one aromatic dicarboxylic acid (ii) said polyester film is disposed in the photovoltaic cell such that layer is in contact with the encapsulant resin. (i) said amorphous copolyester is derived from an aliphatic diol and a cycloaliphatic diol and at least one aromatic dicarboxylic acid (ii) said polyester film is disposed in the photovoltaic cell such that layer is in contact with the encapsulant resin.
An articulated, self-propelled robotic tool, comprising - a first platform comprising a first wheel assembly, - a second platform comprising a second wheel assembly, - a link arrangement (15, 17, 19, 21) connecting the first platform to the second platform at a turning axis having a significant vertical component, such that one of said first and second platform (3, 7) can be pivoted in relation to the other at said turning axis to an angular position, and - a goniometer arrangement configured to sense said angular position, characterized by: said link arrangement comprising a first part rigidly attached to the first platform, and a second part rigidly attached to the second platform and configured to pivot about the first part, and said goniometer arrangement comprising a magnet attached to the first part at said turning axis, and a Hall sensor arrangement attached to the second part at said turning axis. - a first platform comprising a first wheel assembly, - a second platform comprising a second wheel assembly, - a link arrangement (15, 17, 19, 21) connecting the first platform to the second platform at a turning axis having a significant vertical component, such that one of said first and second platform (3, 7) can be pivoted in relation to the other at said turning axis to an angular position, and - a goniometer arrangement configured to sense said angular position, characterized by: said link arrangement comprising a first part rigidly attached to the first platform, and a second part rigidly attached to the second platform and configured to pivot about the first part, and said goniometer arrangement comprising a magnet attached to the first part at said turning axis, and a Hall sensor arrangement attached to the second part at said turning axis. said link arrangement comprising a first part rigidly attached to the first platform, and a second part rigidly attached to the second platform and configured to pivot about the first part, and said goniometer arrangement comprising a magnet attached to the first part at said turning axis, and a Hall sensor arrangement attached to the second part at said turning axis.
An illumination device comprising: a coherent light source which emits coherent light; a light diffuser which diffuses the coherent light from the coherent light source; a light scanning device which scans the coherent light from the light diffuser in an illumination area so as to guide the coherent light to illumination subareas constituting parts of the illumination area; wherein the light diffuser includes a plurality of diffusing elements; and characterised in that a relay optical system is disposed between the light diffuser and the light scanning device, wherein the coherent light from the light diffuser is guided to the light scanning device through the relay optical system. a coherent light source which emits coherent light; a light diffuser which diffuses the coherent light from the coherent light source; a light scanning device which scans the coherent light from the light diffuser in an illumination area so as to guide the coherent light to illumination subareas constituting parts of the illumination area; wherein the light diffuser includes a plurality of diffusing elements; and characterised in that a relay optical system is disposed between the light diffuser and the light scanning device, wherein the coherent light from the light diffuser is guided to the light scanning device through the relay optical system.
A plating apparatus, which is configured to form a plating film on a portion to be plated of an object to be plated, the plating apparatus comprising: - a rotary electrode configured to be rotatable; - a plating solution holding unit arranged onto the rotary electrode and configured to hold a plating solution by impregnation; - a power supply unit configured to apply a voltage between the portion to be plated brought into contact with the plating solution holding unit and the rotary electrode under a state in which the object to be plated is placed on the rotary electrode through intermediation of the plating solution holding unit, and - a plating solution supply unit configured to supply the plating solution to the plating solution holding unit, wherein the rotary electrode is configured to be rotatable about a shaft, wherein the plating solution supply unit comprises an ejection port configured to eject the plating solution, characterised in that the ejection port is arranged above the shaft, and the arrangement position of the ejection port is adjustable between above a center portion of the rotary electrode and above a circular track of the object to be plated on the rotary electrode when the rotary electrode is rotating. - a rotary electrode configured to be rotatable; - a plating solution holding unit arranged onto the rotary electrode and configured to hold a plating solution by impregnation; - a power supply unit configured to apply a voltage between the portion to be plated brought into contact with the plating solution holding unit and the rotary electrode under a state in which the object to be plated is placed on the rotary electrode through intermediation of the plating solution holding unit, and - a plating solution supply unit configured to supply the plating solution to the plating solution holding unit, wherein the rotary electrode is configured to be rotatable about a shaft, wherein the plating solution supply unit comprises an ejection port configured to eject the plating solution, wherein the rotary electrode is configured to be rotatable about a shaft, wherein the plating solution supply unit comprises an ejection port configured to eject the plating solution, the ejection port is arranged above the shaft, and the arrangement position of the ejection port is adjustable between above a center portion of the rotary electrode and above a circular track of the object to be plated on the rotary electrode when the rotary electrode is rotating.
Method for automatically commissioning or consolidating goods of the most different shape and assortment, comprising the following steps: - calculation of the loading patterns in terms of the loading sequence of the delivery packages for each purchase order; - reservation of virtual storage zones for the purchase orders in a high-rack store having a certain number of storage places corresponding to a certain loading quantity and loading sequence calculated in advance, where the reserved number of storage places changes dynamically with the loading quantity for the delivery package concerned; - storage of the goods in the appropriate storage places in the high-rack store, where the individual goods for a purchase order are stored in immediate vicinity in each storage zone so that the goods that are to be assigned to a certain purchase order are arranged in the loading sequence already in the storage zone concerned; - removal from storage of the goods in the loading sequence required for palletizing the delivery packages; - transport of the goods to a palletizing workplace (10, 10') in the loading sequence; - palletizing of the goods for forming the delivery packages. - calculation of the loading patterns in terms of the loading sequence of the delivery packages for each purchase order; - reservation of virtual storage zones for the purchase orders in a high-rack store having a certain number of storage places corresponding to a certain loading quantity and loading sequence calculated in advance, where the reserved number of storage places changes dynamically with the loading quantity for the delivery package concerned; - storage of the goods in the appropriate storage places in the high-rack store, where the individual goods for a purchase order are stored in immediate vicinity in each storage zone so that the goods that are to be assigned to a certain purchase order are arranged in the loading sequence already in the storage zone concerned; - removal from storage of the goods in the loading sequence required for palletizing the delivery packages; - transport of the goods to a palletizing workplace (10, 10') in the loading sequence; - palletizing of the goods for forming the delivery packages.
A method for controlling motion of a heavy-duty vehicle, the method comprising estimating a current vehicle state (s t0) comprising at least velocity (v t0) and acceleration (a t0), wherein the estimated current state is associated with a current state uncertainty, determining the current state uncertainty based on a measurement uncertainty associated with one or more sensor input signals, estimating a future vehicle state (s t1) based on the current vehicle state (s t0), and on a predictive motion model of the vehicle, wherein the future vehicle state (s t1) is associated with a future vehicle state uncertainty, defining a vehicle control envelope representing an operational limit of the vehicle, wherein the vehicle control envelope defines a range of vehicle states, comparing the estimated future vehicle state (s t1), and the associated future vehicle state uncertainty, to the vehicle control envelope, and, if a probability that the future vehicle state (s t1) breaches the control envelope is above a configured threshold value, limiting a motion capability of the vehicle. estimating a current vehicle state (s t0) comprising at least velocity (v t0) and acceleration (a t0), wherein the estimated current state is associated with a current state uncertainty, determining the current state uncertainty based on a measurement uncertainty associated with one or more sensor input signals, estimating a future vehicle state (s t1) based on the current vehicle state (s t0), and on a predictive motion model of the vehicle, wherein the future vehicle state (s t1) is associated with a future vehicle state uncertainty, defining a vehicle control envelope representing an operational limit of the vehicle, wherein the vehicle control envelope defines a range of vehicle states, comparing the estimated future vehicle state (s t1), and the associated future vehicle state uncertainty, to the vehicle control envelope, and, if a probability that the future vehicle state (s t1) breaches the control envelope is above a configured threshold value, limiting a motion capability of the vehicle.
A compound of formula I wherein Y is N or CH or a pharmaceutically acceptable acid addition salt, a racemic mixture, or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof. Y is N or CH or a pharmaceutically acceptable acid addition salt, a racemic mixture, or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof.
Liquid fuel composition, comprising: - from 30 to 90% by weight of an acid oil coming from the acidification of a neutralisation paste obtained by a method of saponifying one or more oils selected from a vegetable oil and an animal oil, and - from 10 to 70% by weight of a composition comprising tall oil pitch, this composition comprising from 50 to 90% by weight of tall oil pitch, and the complement to 100% of one or more solvents. - from 30 to 90% by weight of an acid oil coming from the acidification of a neutralisation paste obtained by a method of saponifying one or more oils selected from a vegetable oil and an animal oil, and - from 10 to 70% by weight of a composition comprising tall oil pitch, this composition comprising from 50 to 90% by weight of tall oil pitch, and the complement to 100% of one or more solvents.
A pump housing for an eccentric screw pump, with a longitudinal axis and an axially running hollow space formed between a drive-side opening and a pump-side opening, wherein the pump-side opening is surrounded by a main housing body and a lid fastened removably thereto, wherein the main housing body comprises a circular segment-shaped axial guide surface lying opposite the lid, characterised in that a stator flange element which can be coupled with the pump housing is axially displaceable on the guide surface and the lid fastened to the main housing body prevents a displacement of the stator flange element in the direction of the drive-side opening.
An active layer of an optoelectronic device, the active layer comprising: one or more non-fullerene materials; and one or more hole-scavenging materials; wherein the one or more non-fullerene materials are intimately mixed with the one or more hole-scavenging materials, and where a ratio of the one or more hole-scavenging components to the one or more non-fullerene components in the active layer ranges from 1:10 to 1:25, and wherein the active layer has an average visible transmission of greater than 70%, wherein the one or more hole scavenging materials include one or more of thiophene, acene, fluorine, carbazole, indacenodithieno thiophene, indacenothieno thiphene, benzodithiazole, thieny-benzodithiophene-dione, benzotriazole, and diketopyrrolopyrrole. one or more non-fullerene materials; and one or more hole-scavenging materials; wherein the one or more non-fullerene materials are intimately mixed with the one or more hole-scavenging materials, and where a ratio of the one or more hole-scavenging components to the one or more non-fullerene components in the active layer ranges from 1:10 to 1:25, and wherein the active layer has an average visible transmission of greater than 70%, wherein the one or more hole scavenging materials include one or more of thiophene, acene, fluorine, carbazole, indacenodithieno thiophene, indacenothieno thiphene, benzodithiazole, thieny-benzodithiophene-dione, benzotriazole, and diketopyrrolopyrrole.