mhurhangee/ep-ind-claims huggingface dataset:
A grate block for a grate of an incineration plant - with a base element and - a head piece arranged on the base element, wherein the base element having a retaining element for support on retaining tubes and a foot for support on the running surface of the nearest further base element arranged below the base element, wherein the base element is provided with - at least one projection directed in the direction of the head piece and - at least one support provided for the abutment of the head piece provided with at least one passage opening, and wherein the head piece is provided with - at least one recess directed towards the base element and - at least one passage opening, wherein the projection of the base element and the recess of the head piece are matched to one another so that a positioning of the head piece on the base element is given by their interaction, and wherein the passage opening in the support of the base element and the passage opening of the head piece are arranged concentrically one above the other, and wherein a metal pin is provided for insertion into the passage openings (15, 18) and the metal pin is welded to the head piece for securing the head piece to the base element. - with a base element and - a head piece arranged on the base element, wherein the base element having a retaining element for support on retaining tubes and a foot for support on the running surface of the nearest further base element arranged below the base element, wherein the base element is provided with - at least one projection directed in the direction of the head piece and - at least one support provided for the abutment of the head piece provided with at least one passage opening, - at least one projection directed in the direction of the head piece and - at least one support provided for the abutment of the head piece provided with at least one passage opening, and wherein the head piece is provided with - at least one recess directed towards the base element and - at least one passage opening, - at least one recess directed towards the base element and - at least one passage opening, wherein the projection of the base element and the recess of the head piece are matched to one another so that a positioning of the head piece on the base element is given by their interaction, and wherein the passage opening in the support of the base element and the passage opening of the head piece are arranged concentrically one above the other, and wherein a metal pin is provided for insertion into the passage openings (15, 18) and the metal pin is welded to the head piece for securing the head piece to the base element.
An autonomous mobile robot for cleaning a cleaning surface comprises: a chassis having a drive system mounted therein in communication with a control system; a cleaning head assembly (300; 100) having a lower cage and mounted to the chassis; a debris collection bin mounted to the chassis; and a vacuum airway having a vacuum inlet (392; 200) and an airway outlet positioned adjacent the debris collection bin, and configured to deliver debris from the cleaning head assembly to the debris collection bin, the vacuum airway extending between the cleaning assembly and the debris collection bin; characterized by: a cleaning head module connected to the chassis and having a front roller (110; 310) including a front shape-changing resilient tube (350; 150) and an adjacent rear roller (120; 320) including a rear shape- changing resilient tube (350; 150) rotatably opposing therewith beneath the vacuum inlet; wherein the cleaning head module is spaced from a radially outermost part of the front roller and the rear roller by less than or equal to about 1 mm. a chassis having a drive system mounted therein in communication with a control system; a cleaning head assembly (300; 100) having a lower cage and mounted to the chassis; a debris collection bin mounted to the chassis; and a vacuum airway having a vacuum inlet (392; 200) and an airway outlet positioned adjacent the debris collection bin, and configured to deliver debris from the cleaning head assembly to the debris collection bin, the vacuum airway extending between the cleaning assembly and the debris collection bin; characterized by: a cleaning head module connected to the chassis and having a front roller (110; 310) including a front shape-changing resilient tube (350; 150) and an adjacent rear roller (120; 320) including a rear shape- changing resilient tube (350; 150) rotatably opposing therewith beneath the vacuum inlet; wherein the cleaning head module is spaced from a radially outermost part of the front roller and the rear roller by less than or equal to about 1 mm. a cleaning head module connected to the chassis and having a front roller (110; 310) including a front shape-changing resilient tube (350; 150) and an adjacent rear roller (120; 320) including a rear shape- changing resilient tube (350; 150) rotatably opposing therewith beneath the vacuum inlet; wherein the cleaning head module is spaced from a radially outermost part of the front roller and the rear roller by less than or equal to about 1 mm.
A method of operating a technical installation, wherein an order for manufacturing a product is transmitted to a first mobile assistance system and component parts which are required to manufacture the product are received by the first mobile assistance system, wherein there is determined a work station at which a work step for manufacturing the product can be carried out on the first mobile assistance system, and when the order transmitted to the first mobile assistance system is classified as a rush order, information about the rush order is transmitted to the determined work station, information about the rush order is transmitted to at least one second mobile assistance system which is waiting in front of the determined work station for the carrying out of a work step, the first mobile assistance system is moved to the determined work station, the work step for manufacturing the product is carried out on the first mobile assistance system at the determined work station, and after the work step for manufacturing the product has been carried out on the first mobile assistance system at the work station, the second mobile assistance system, waiting in front of the determined work station, is moved to the determined work station, wherein each of the mobile assistance systems (11, 12) has a work surface on which the work step for manufacturing the product can be carried out at the work station, wherein the product can be entirely manufactured on the mobile assistance system (11, 12), and wherein each of the mobile assistance systems (11, 12) has a graphic display unit on which there can be shown an assembly instruction for manufacture of the product, and wherein each of the mobile assistance systems (11, 12) has a drive device by means of which the graphic display unit can be moved in a rotary and translational manner, and wherein the drive device is configured to move the graphic display unit into a defined position, dependent on a travel speed of the mobile assistance system (11, 12).
An antenna assembly comprising: a metal computing device case including a back face and side faces (106, 108, 110, 112) bounding at least a portion of the back face, the metal computing device case further including a radiating structure having an aperture formed in at least one side face from which a notch extends from the aperture cutting through an edge portion of the at least one side face of the metal computing device case, the radiating structure comprising an elongated metal arm formed by the aperture and the notch; and a conductive feed structure connected to a radio, the conductive feed structure being connected to the radiating structure of the metal computing device case and configured to excite the radiating structure at one or more resonance frequencies; characterized in that the aperture extends around one corner along two adjacent side faces of the metal computing device case such that the elongated metal arm is formed from edge portions of the two adjacent side faces of the metal computing device case. a metal computing device case including a back face and side faces (106, 108, 110, 112) bounding at least a portion of the back face, the metal computing device case further including a radiating structure having an aperture formed in at least one side face from which a notch extends from the aperture cutting through an edge portion of the at least one side face of the metal computing device case, the radiating structure comprising an elongated metal arm formed by the aperture and the notch; and a conductive feed structure connected to a radio, the conductive feed structure being connected to the radiating structure of the metal computing device case and configured to excite the radiating structure at one or more resonance frequencies; characterized in that the aperture extends around one corner along two adjacent side faces of the metal computing device case such that the elongated metal arm is formed from edge portions of the two adjacent side faces of the metal computing device case.
A slicing machine for cutting slices of a food product, comprising: a machine housing including a circular blade rotating in a cutting plane, a stop plate movable perpendicular to the cutting plane by an adjustment device, a carriage mounted such that it is movable parallel to the cutting plane a machine status display (28, 29; 28', 29'; 28'', 29''; 28''', 29'''; 28'''', 29'''') for displaying the actual status of the slicing machine, characterized in that the silicing machine further comprises a first determining means for determining if the blade is rotating, a second determining means for determining the state of the stop plate, and a processor for receiving the outputs of the first determining means and the second determining means and for generating a machine status value. a machine housing including a circular blade rotating in a cutting plane, a stop plate movable perpendicular to the cutting plane by an adjustment device, a carriage mounted such that it is movable parallel to the cutting plane a machine status display (28, 29; 28', 29'; 28'', 29''; 28''', 29'''; 28'''', 29'''') for displaying the actual status of the slicing machine, characterized in that the silicing machine further comprises a first determining means for determining if the blade is rotating, a second determining means for determining the state of the stop plate, and a processor for receiving the outputs of the first determining means and the second determining means and for generating a machine status value.
A method of converting solid carbon based material comprising the steps of: providing a rotatable chamber in which the material can be heated; introducing the material into the chamber; rotating the chamber and heating the material in the chamber to reduce the material; collecting low temperature gases or oil or both from the chamber; and collecting residual solids from the material, wherein the solid carbon based material is a whole tire or other solid carbon based material selected from the group consisting of a rubber belting and a rubber construction track, wherein the solid carbon based material is introduced and processed into the chamber in its existing form, wherein the collected low temperature gases include syngas, and wherein the collected residual solids include carbon solids. providing a rotatable chamber in which the material can be heated; introducing the material into the chamber; rotating the chamber and heating the material in the chamber to reduce the material; collecting low temperature gases or oil or both from the chamber; and collecting residual solids from the material, wherein the solid carbon based material is a whole tire or other solid carbon based material selected from the group consisting of a rubber belting and a rubber construction track, wherein the solid carbon based material is introduced and processed into the chamber in its existing form, wherein the collected low temperature gases include syngas, and wherein the collected residual solids include carbon solids.
Method for producing an excavation pit enclosure, in which - a substantially vertical enclosure wall of diaphragm wall panels is produced in the ground, the vertical butt joints of which are sealed by means of a joint sealing tape, - the ground inside the enclosure wall is excavated, and - a substantially horizontal ground plate is provided which adjoins the enclosure wall, characterized in that - on at least one vertical butt joint between two adjoining diaphragm wall panels a receiving bore extending towards the joint sealing tape is introduced into the enclosure wall and - in that a sealing element for forming a horizontal sealing is introduced into the receiving bore. - a substantially vertical enclosure wall of diaphragm wall panels is produced in the ground, the vertical butt joints of which are sealed by means of a joint sealing tape, - the ground inside the enclosure wall is excavated, and - a substantially horizontal ground plate is provided which adjoins the enclosure wall, - on at least one vertical butt joint between two adjoining diaphragm wall panels a receiving bore extending towards the joint sealing tape is introduced into the enclosure wall and - in that a sealing element for forming a horizontal sealing is introduced into the receiving bore.
A safened composition, comprising: (a) a pyridine carboxylate herbicide defined by Formula: wherein: R 1 is cyanomethyl or propargyl; R 2 and R 2' are independently hydrogen, C 1 -C 6 alkyl, formyl, alkoxycarbonyl, or acyl having the formula -C R, where R may be alkyl, haloalkyl, alkenyl, haloalkenyl, alkynyl, aryl or heteroaryl, or arylalkyl; R 3, R 3', R 3", and R 3′′′ are independently hydrogen, halogen, C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 -C 3 alkoxy, or C 1 -C 3 haloalkoxy; or an agriculturally acceptable N-oxide or salt thereof; and (b) an azole carboxylate safener selected from the group consisting of fenchlorazole, flurazole, furilazole, mefenpyr, an agriculturally acceptable salt or ester thereof, and mixtures thereof, wherein the weight ratio of the pyridine carboxylate herbicide (in g ae/ha) to the azole carboxylate safener (in g ai/ha) is from about 1:5 to about 5:1. (a) a pyridine carboxylate herbicide defined by Formula: wherein: R 1 is cyanomethyl or propargyl; R 2 and R 2' are independently hydrogen, C 1 -C 6 alkyl, formyl, alkoxycarbonyl, or acyl having the formula -C R, where R may be alkyl, haloalkyl, alkenyl, haloalkenyl, alkynyl, aryl or heteroaryl, or arylalkyl; R 3, R 3', R 3", and R 3′′′ are independently hydrogen, halogen, C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 -C 3 alkoxy, or C 1 -C 3 haloalkoxy; or an agriculturally acceptable N-oxide or salt thereof; and R 1 is cyanomethyl or propargyl; R 2 and R 2' are independently hydrogen, C 1 -C 6 alkyl, formyl, alkoxycarbonyl, or acyl having the formula -C R, where R may be alkyl, haloalkyl, alkenyl, haloalkenyl, alkynyl, aryl or heteroaryl, or arylalkyl; R 3, R 3', R 3", and R 3′′′ are independently hydrogen, halogen, C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 -C 3 alkoxy, or C 1 -C 3 haloalkoxy; or an agriculturally acceptable N-oxide or salt thereof; and (b) an azole carboxylate safener selected from the group consisting of fenchlorazole, flurazole, furilazole, mefenpyr, an agriculturally acceptable salt or ester thereof, and mixtures thereof,
Agricultural vehicle comprising - a loading chamber surrounded by several walls (5, 7), - an inlet guiding into the loading chamber, - a conveyor, - a conveyor drive for moving the conveyor, - a wall actuator, - at least one sensor (13, 16), wherein at least one wall or at least one part of one wall of the loading chamber is pivotal, wherein the wall actuator is arranged to pivot the pivotal wall or pivotal wall part, wherein the vehicle is arranged to inject crop material in the loading chamber, thereby causing that pressure is applied onto the crop material in the loading chamber, wherein the vehicle is arranged - to move crop material injected into the loading chamber away from the inlet by moving the conveyor and - to store the moved crop material in the loading chamber, wherein the or every sensor (13, 16) is arranged to measure a value indicative of a parameter, wherein the vehicle is arranged to automatically reduce the pressure which is applied onto the crop material in the loading chamber depending on signals from the or at least one sensor (13, 16), the or at least one sensor is a crop material property sensor which is arranged to measure a value indicative of a property of crop material carried on board of the vehicle characterized in that the vehicle is arranged - to activate the conveyor drive thereby reducing the applied pressure, depending on the or at least one crop material property measured by the or at least one crop material property sensor of the vehicle. - a loading chamber surrounded by several walls (5, 7), - an inlet guiding into the loading chamber, - a conveyor, - a conveyor drive for moving the conveyor, - a wall actuator, - at least one sensor (13, 16), wherein at least one wall or at least one part of one wall of the loading chamber is pivotal, wherein the wall actuator is arranged to pivot the pivotal wall or pivotal wall part, wherein the vehicle is arranged to inject crop material in the loading chamber, thereby causing that pressure is applied onto the crop material in the loading chamber, wherein the vehicle is arranged - to move crop material injected into the loading chamber away from the inlet by moving the conveyor and - to store the moved crop material in the loading chamber, wherein the or every sensor (13, 16) is arranged to measure a value indicative of a parameter, wherein the vehicle is arranged to automatically reduce the pressure which is applied onto the crop material in the loading chamber depending on signals from the or at least one sensor (13, 16), the or at least one sensor is a crop material property sensor which is arranged to measure a value indicative of a property of crop material carried on board of the vehicle characterized in that the vehicle is arranged - to activate the conveyor drive thereby reducing the applied pressure, depending on the or at least one crop material property measured by the or at least one crop material property sensor of the vehicle.
Process, carried out by a computer, for simulating the physical behavior of a vehicle tire rolling on the ground with which the tire tread has an area of contact including at least one adherent contact zone and at least one sliding contact zone, which process includes at least modeling operations, numeric value assignment operations, and solving operations, in which the modeling operations involve at least establishing, by applying physical laws that are known and/or developed by specific experimentation, and as a first model, a model of the longitudinal forces (Fx), the transverse forces (Fy), and a self-alignment torque (Mz), transmitted by the tire between the ground and the vehicle, on the basis of specific physical parameters, including an adherence coefficient and a shear modulus of the rubber of the tire, and on the basis of dynamic parameters associated with the physical conditions of rolling and use of the tire, in which the self-alignment torque is associated with the intensity of the longitudinal and transverse forces and their distribution in the contact area, in which the assignment operations involve at least assigning numeric values to the dynamic parameters and to the specific parameters, and in which the solving operations involve at least deducing, using at least the first model and the values assigned to the dynamic parameters and to the specific physical parameters, the values of the longitudinal forces (Fx), the transverse forces (Fy) and the self-alignment torque (Mz), characterized in that the modeling operations also include the establishment, as a second model, of a local heating model expressing variations in a temperature of contact of the tread with the ground from the beginning to the end of the contact area due to the contact and the slip of the tread with the ground, and the establishment, as a third model, of a general heating and thermal flux model, in which said third model expresses variations, over a period of at least one wheel rotation, in a peripheral tread temperature and an internal tire temperature on the basis of values previously known or estimated from peripheral and internal temperatures, a coefficient of thermal conductivity of the tread, and phenomena with a thermodynamic component such as internal deformations of the tire, heat transfers between the tire and its environment, and slip of the tread on the ground, in which at least the adherence coefficient and the shear modulus are involved in the first model as variables, respectively based on the peripheral temperature and the internal temperature, in which the value of the peripheral temperature (Ts), obtained by solving operations concerning the third model, is used by solving operations concerning the second model in order to take into account the temperature dependence of the adherence coefficient, and in which the value of the internal temperature (Ti), obtained by solving operations concerning the third model, is used by solving operations concerning the first model in order to take into account the temperature dependence of the shear modulus of the rubber of the tire.
Motor vehicle latch comprising at least one catch, one pawl, and one latch plate, the catch and the pawl being rotatably mounted on the latch plate, the latch plate having at least two mounting openings (21, 22) for mounting the motor vehicle latch, the latch plate having a run-in slot for a latch holder and an edge bend opposite the run-in slot being provided on the latch plate, which edge bend is semicircular at least in an end portion opposite the run-in slot, characterized in that the mounting openings (21, 22) are positioned opposite one another, so that a connecting line extends between the mounting openings (21, 22) over the latch plate, and in that the edge bend extends from one mounting opening (21, 22) to the other mounting opening (21, 22) over a region of an end of the latch plate that is oriented counter to the latch holder.