mhurhangee/ep-ind-claims huggingface dataset:
A dwell cycle crank mechanism for converting reciprocating linear motion to rotary motion comprising: a body; a follower being substantially oval shaped; a top roller being substantially circular shaped having a bottom portion removed, said removed bottom portion being adapted to fit the top of said follower; and a bottom roller being substantially circular shaped and having a top portion removed, said removed top portion being adapted to fit the bottom of said follower; said top and bottom rollers (104 and 108) being positioned within the body where each roller is adapted to rotate for allowing said follower to ride between said rollers within said body in an S-shaped pattern. a body; a follower being substantially oval shaped; a top roller being substantially circular shaped having a bottom portion removed, said removed bottom portion being adapted to fit the top of said follower; and a bottom roller being substantially circular shaped and having a top portion removed, said removed top portion being adapted to fit the bottom of said follower; said top and bottom rollers (104 and 108) being positioned within the body where each roller is adapted to rotate for allowing said follower to ride between said rollers within said body in an S-shaped pattern.
Circuit device for a cooking device, in particular cooking hob, more in particular induction cooking hob, comprising - at least two, in particular two, three or at least three power units (P1, P2,.. PN), each power unit being configured to be supplied with electrical power by a different mains current phase (L1, L2,.. LN), - wherein each power unit (P1, P2,.. PN) comprises frequency converting means (G11.. GNM), each for supplying at least one induction element with electrical power to generate heating power, - wherein each power unit (P1, P2,.. PN) comprises at least one current conversion unit (C1.. CN) for converting an input direct or alternating current into one, at least one, two or at least two output direct currents, - wherein each power unit (P1, P2,.. PN) comprises at least one load or at least two loads (D11.. DN2), in particular one or more low-power loads and/or control units, supplied or to be supplied with electrical power by the output direct current, an output direct current or the output direct currents from the current conversion unit, - wherein a first power unit comprises a first current conversion unit, in particular for converting an alternating current from a first mains current phase into one, at least one, two or at least two first output direct currents (I11..IN2), characterised in that - the first output direct current or one of the first output direct currents of the first power unit is configured to supply - at least a second current conversion unit of a second power unit for converting the first output direct current into one, at least one, two or at least two second output direct currents. - at least two, in particular two, three or at least three power units (P1, P2,.. PN), each power unit being configured to be supplied with electrical power by a different mains current phase (L1, L2,.. LN), - wherein each power unit (P1, P2,.. PN) comprises frequency converting means (G11.. GNM), each for supplying at least one induction element with electrical power to generate heating power, - wherein each power unit (P1, P2,.. PN) comprises at least one current conversion unit (C1.. CN) for converting an input direct or alternating current into one, at least one, two or at least two output direct currents, - wherein each power unit (P1, P2,.. PN) comprises at least one load or at least two loads (D11.. DN2), in particular one or more low-power loads and/or control units, supplied or to be supplied with electrical power by the output direct current, an output direct current or the output direct currents from the current conversion unit, - wherein a first power unit comprises a first current conversion unit, in particular for converting an alternating current from a first mains current phase into one, at least one, two or at least two first output direct currents (I11..IN2), characterised in that - the first output direct current or one of the first output direct currents of the first power unit is configured to supply - at least a second current conversion unit of a second power unit for converting the first output direct current into one, at least one, two or at least two second output direct currents.
Method for controlling a technical system on the basis of a control model, wherein a) provision is made of a transformation function for reducing and/or obfuscating operating data (BD1, BD2) of the technical system to form transformed operating data (TBD1, TBD2) within a first access domain, b) in a second access domain outside of the first access domain, the control model is generated by a model generator as a function of first operating data of the technical system, c) second operating data of the technical system are captured in the first access domain that is separated from the control model and said second operating data are transformed into transformed second operating data by the transformation function, d) the transformed second operating data are received by a model execution system situated in a separated access domain outside of the first access domain, e) the control model is executed by the model execution system with a supply of the transformed second operating data in an access domain that is separated from the second operating data, with control data being derived from the transformed second operating data, and f) the control data are transmitted for the purposes of controlling the technical system. a) provision is made of a transformation function for reducing and/or obfuscating operating data (BD1, BD2) of the technical system to form transformed operating data (TBD1, TBD2) within a first access domain, b) in a second access domain outside of the first access domain, the control model is generated by a model generator as a function of first operating data of the technical system, c) second operating data of the technical system are captured in the first access domain that is separated from the control model and said second operating data are transformed into transformed second operating data by the transformation function, d) the transformed second operating data are received by a model execution system situated in a separated access domain outside of the first access domain, e) the control model is executed by the model execution system with a supply of the transformed second operating data in an access domain that is separated from the second operating data, with control data being derived from the transformed second operating data, and f) the control data are transmitted for the purposes of controlling the technical system.
A micro device transfer head array comprising: a base substrate; a patterned silicon layer over the base substrate, the patterned silicon layer including a silicon interconnect (104, 106) and an array of silicon electrodes electrically connected with the silicon interconnect, wherein each silicon electrode includes a mesa structure protruding above the silicon interconnect; and a dielectric layer covering a top surface of each mesa structure; wherein the array of silicon electrodes are integrated into a corresponding array of electrostatic transfer heads, each electrostatic transfer head configured to transfer a separate micro device. a base substrate; a patterned silicon layer over the base substrate, the patterned silicon layer including a silicon interconnect (104, 106) and an array of silicon electrodes electrically connected with the silicon interconnect, wherein each silicon electrode includes a mesa structure protruding above the silicon interconnect; and a dielectric layer covering a top surface of each mesa structure;
A process for the production of heat-shielding laminated glass composites by means of the lamination of two transparent panes with at least one film A and at least one film B, wherein the films A and B are positioned between the two transparent panes and laminate them together, wherein film A comprises a polyvinyl acetal PA and 0 to 16% by weight of at least one plasticizer WA as well as a heat-shielding coating, and film B comprises a polyvinyl acetal PB and at least 16% by weight of at least one plasticizer WB, characterized in that in the edge region, film A is at least 1 mm smaller than at least one glass pane in a manner such that film B is in direct contact with at least one glass pane in this edge region, and in that film A comprises less than 150 ppm of chloride ions.
A paper sheet handling apparatus comprising: a supply unit comprising a support surface which tilts from a vertical direction, and a mounting surface substantially perpendicular to the support surface, and configured to receive a plurality of paper sheets which tilt along the support surface and are stacked on the mounting surface; a pick up mechanism configured to pick up the paper sheets from a mounting surface side of the supply unit; a conveyance path configured to convey the picked up paper sheet; an inspection device configured to inspect the conveyed paper sheet; and characterised in that the paper sheet handling apparatus further comprises an accumulation strapping device configured to accumulate and strap the paper sheets fed from the inspection device every plural papers, the accumulation strapping device comprising a conveyance path; a first accumulation device comprising a temporary accumulating section and an impeller accumulation device, configured to accumulate paper sheets fed through the conveyance path every predetermined number thereof; a second accumulation device comprising a temporary accumulating section and an impeller accumulation device, configured to accumulate the paper sheets fed through the conveyance path every predetermined number thereof, the second accumulation device being arranged such that it is obliquely shifted from the first accumulation device in a downward direction; and a strapping device arranged under the second accumulation device and configured to strap a bundle of the accumulated paper sheets by a tape. a supply unit comprising a support surface which tilts from a vertical direction, and a mounting surface substantially perpendicular to the support surface, and configured to receive a plurality of paper sheets which tilt along the support surface and are stacked on the mounting surface; a pick up mechanism configured to pick up the paper sheets from a mounting surface side of the supply unit; a conveyance path configured to convey the picked up paper sheet; an inspection device configured to inspect the conveyed paper sheet; and characterised in that the paper sheet handling apparatus further comprises an accumulation strapping device configured to accumulate and strap the paper sheets fed from the inspection device every plural papers, the accumulation strapping device comprising a conveyance path; a first accumulation device comprising a temporary accumulating section and an impeller accumulation device, configured to accumulate paper sheets fed through the conveyance path every predetermined number thereof; a second accumulation device comprising a temporary accumulating section and an impeller accumulation device, configured to accumulate the paper sheets fed through the conveyance path every predetermined number thereof, the second accumulation device being arranged such that it is obliquely shifted from the first accumulation device in a downward direction; and a strapping device arranged under the second accumulation device and configured to strap a bundle of the accumulated paper sheets by a tape.
A lighting unit comprising (i) an arrangement of a plurality of light source units configured to provide corresponding light source unit light, (ii) a first foil comprising a plurality of transmissive first foil regions, wherein each first foil region comprises a plurality of optical elements comprising an optical element with refractive functionality to the light source unit light in a center of each region and an optical element with total internal reflection functionality to the light source unit light in a peripheral area remote from said center in each region, and (iii) a second foil comprising a plurality of transmissive second foil regions, wherein each second foil region comprises a plurality of optical elements wherein each second foil region comprises at its center an optical element with refractive functionality to the light source unit light and in a peripheral area remote from its center an optical element with total internal reflection functionality to the light source unit light, wherein each light source unit has a corresponding first foil region configured downstream of said light source unit and a corresponding second foil region configured downstream of said first foil region.
Method for determining time-variant and/or static data, wherein - M-bus raw data are acquired by means of at least one data acquisition unit, - the M-bus raw data are transmitted in an M-bus format to an external data processing unit, - the transmitted M-bus raw data are transmitted via an Internet connection to a central data processing unit, - in the central data processing unit the M-bus raw data are translated by means of at least one M-bus parser and - the translated data (D') are transmitted via an Internet connection to the external data processing unit in order to determine data, - wherein the M-bus parser is provided as an online service and a parsing algorithm on which the M-bus parser is based is designed for updating and - wherein in the external data processing unit a translation request for the M-bus raw data is generated and transmitted to the central data processing unit and the translated data in the newly generated format are sent back to the external data processing unit. - M-bus raw data are acquired by means of at least one data acquisition unit, - the M-bus raw data are transmitted in an M-bus format to an external data processing unit, - the transmitted M-bus raw data are transmitted via an Internet connection to a central data processing unit, - in the central data processing unit the M-bus raw data are translated by means of at least one M-bus parser and - the translated data (D') are transmitted via an Internet connection to the external data processing unit in order to determine data, - wherein the M-bus parser is provided as an online service and a parsing algorithm on which the M-bus parser is based is designed for updating and - wherein in the external data processing unit a translation request for the M-bus raw data is generated and transmitted to the central data processing unit and the translated data in the newly generated format are sent back to the external data processing unit.
An aldose reductase inhibitor selected from fidarestat, epalrestat, ponalrestat, risarestat, imirestat, zopolrestat, minalrestat, or tolrestat for use in the treatment or prevention of COPD in a subject diagnosed with, exhibiting symptoms of, or at risk of developing COPD.
Orthotic joint, in particular ankle joint for a leg orthosis, comprising a joint part with a rail mount and a foot stirrup which is connected to the joint part so as to be pivotable about an axis A and presents a dorsal stop surface and a ventral stop surface, with a channel (16, 17) being formed on both sides of the axis A on the joint part, in each of which a functional means (18, 19) for forming a dorsal stop and a ventral stop for the foot stirrup or its stop surfaces (14, 15) is arranged on the joint part, an adjusting element (22, 23) being assigned to each functional means (18, 19) at least for adjusting a base setting of the orthotic joint in relation to the course of a plumb line of a person wearing the orthotic joint, characterised in that the or each adjusting element (22, 23) is configured as a hydraulic unit which is assigned to the joint part and acts on both functional means (18, 19).
Outdoor shoe, in particular a climbing or hiking shoe with an inside lining and an upper material, characterized in that, the inside lining has a first material and a second material, wherein the second material is arranged in the area of a hallux basal joint position and wherein the second material has a greater flexibility than the first material.
Method for producing a multilayer film comprising at least two layers (S1, S2) joined by means of a solventless two-component adhesive, comprising the following steps: - spreading a first component of a two-component adhesive on a first face of a first layer of film; - spreading a second component of the two-component adhesive on a first face of a second layer of film; - bringing the aforesaid first and second faces of the first and second layers into mutual contact joining the components and to form an adhesive and join the two layers (S1, S2) in a multilayer film; and - winding the multilayer film obtained. - spreading a first component of a two-component adhesive on a first face of a first layer of film; - spreading a second component of the two-component adhesive on a first face of a second layer of film; - bringing the aforesaid first and second faces of the first and second layers into mutual contact joining the components and to form an adhesive and join the two layers (S1, S2) in a multilayer film; and - winding the multilayer film obtained.
A machine tool for implementing machining with rotation, the machine tool comprising: a first rotor that rotates about a rotational axis; an enclosure by which the first rotor is surrounded; and characterised by a first rail that is disposed on the first rotor; a second rail that is disposed on the enclosure so as to be brought into alignment with the first rail at a predetermined rotational position; and a coupling member that moves along the first rail and the second rail, engages with the first rail and the second rail in a first state, and engages with the second rail without engaging with the first rail in a second state. a first rotor that rotates about a rotational axis; an enclosure by which the first rotor is surrounded; and characterised by a first rail that is disposed on the first rotor; a second rail that is disposed on the enclosure so as to be brought into alignment with the first rail at a predetermined rotational position; and a coupling member that moves along the first rail and the second rail, engages with the first rail and the second rail in a first state, and engages with the second rail without engaging with the first rail in a second state.
A stereoscopic camera system, comprising: a left camera and a right camera including respective left and right lenses (614L, 614R) an interocular distance mechanism, to set the interocular distance between the left and right cameras (612L, 612R) a foreground object distance sensor that provides an output indicative of a distance to a closest foreground object a controller that causes the interocular distance mechanism to set the interocular distance equal to or less than a maximum interocular distance based on, in part, the output of the foreground distance sensor and a focus distance of the left and right lenses (614L, 614R), wherein the controller determines the maximum interocular distance from the formula: IOD MAX = FOD x CD x MD x W / CD - FOD x FL wherein IOD MAX = the maximum interocular distance W = a width of an image sensor within each camera FL = a focal length of the lenses FOD = the distance to the closest foreground object as indicated by the output of the foreground distance sensor MD = a predetermined maximum disparity as a fraction of the width of the scene recorded by the stereographic camera CD = a convergence distance of the stereographic camera. a left camera and a right camera including respective left and right lenses (614L, 614R) an interocular distance mechanism, to set the interocular distance between the left and right cameras (612L, 612R) a foreground object distance sensor that provides an output indicative of a distance to a closest foreground object a controller that causes the interocular distance mechanism to set the interocular distance equal to or less than a maximum interocular distance based on, in part, the output of the foreground distance sensor and a focus distance of the left and right lenses (614L, 614R), wherein the controller determines the maximum interocular distance from the formula: IOD MAX = FOD x CD x MD x W / CD - FOD x FL wherein IOD MAX = the maximum interocular distance W = a width of an image sensor within each camera FL = a focal length of the lenses FOD = the distance to the closest foreground object as indicated by the output of the foreground distance sensor MD = a predetermined maximum disparity as a fraction of the width of the scene recorded by the stereographic camera CD = a convergence distance of the stereographic camera. IOD MAX = the maximum interocular distance W = a width of an image sensor within each camera FL = a focal length of the lenses FOD = the distance to the closest foreground object as indicated by the output of the foreground distance sensor MD = a predetermined maximum disparity as a fraction of the width of the scene recorded by the stereographic camera CD = a convergence distance of the stereographic camera.
A heavy-duty tire comprising a carcass and a tread located radially outward of the carcass, the carcass comprising sidewalls which terminate in a bead area, wherein the tire has a molded base width in the range of from 1117.6 mm to 1270 mm and a shoulder drop in a range of from 64 mm to 120 mm.
Filter for a vacuum cleaner, wherein said filter comprises a frame and a plurality of filtration layers (10, 20, 30) arranged such that a main surface (11, 21, 31; 11a, 11b, 21a, 21b, 31a, 31b) of the filtration layers (10, 20, 30) are facing each other, wherein the filtration layers (10, 20, 30) are attached to the frame along a first section of a peripheral edge of each filtration layer (10, 20, 30), characterised in that the filtration layers (10, 20, 30) comprise a second free section of the peripheral edge which is unattached to the frame, such that the plurality of filtration layers (10, 20, 30) are held together at the first section of the peripheral edge and can be separated from each other along the second free section of the peripheral edge.