mhurhangee/ep-ind-claims huggingface dataset:
Sink unit arrangement for a galley provided for installation in a transport means, which comprises: - a worktop having a depth (T A), an installation opening and an upper side providing a work surface; - a drip tray, which is arranged in the installation opening provided in the worktop and comprises a first section and a second section, wherein the first section has a depth (T 1) which is smaller than the depth (T A) of the worktop so that the first section of the drip tray is fully integrated into the worktop, and wherein the second section has a depth (T 2) which is greater than the depth (T 1) of the first section and greater than the depth (T A) of the worktop so that the second section protrudes through the installation opening provided in the worktop into a free space adjacent to the installation opening, and wherein the first section of the drip tray has a width (B 1) which is greater than a width (B 2) of the second section of the drip tray and/or wherein the first section of the drip tray has a length (L 1) which is greater than a length (L 2) of the second section of the drip tray, so that introduction of liquids into the first section of the drip tray is eased; the sink unit arrangement characterised in that it further comprises: - a drainage grille which at least partially covers an access surface of the drip tray such that a drainage surface of the drainage grille formed by an upper side of the drainage grille facing away from the drip tray is aligned with the upper side of the worktop so that the upper side of the drainage grille is usable as an additional work surface and/or for standing objects on. - a worktop having a depth (T A), an installation opening and an upper side providing a work surface; - a drip tray, which is arranged in the installation opening provided in the worktop and comprises a first section and a second section, wherein the first section has a depth (T 1) which is smaller than the depth (T A) of the worktop so that the first section of the drip tray is fully integrated into the worktop, and wherein the second section has a depth (T 2) which is greater than the depth (T 1) of the first section and greater than the depth (T A) of the worktop so that the second section protrudes through the installation opening provided in the worktop into a free space adjacent to the installation opening, and wherein the first section of the drip tray has a width (B 1) which is greater than a width (B 2) of the second section of the drip tray and/or wherein the first section of the drip tray has a length (L 1) which is greater than a length (L 2) of the second section of the drip tray, so that introduction of liquids into the first section of the drip tray is eased; the sink unit arrangement characterised in that it further comprises: - a drainage grille which at least partially covers an access surface of the drip tray such that a drainage surface of the drainage grille formed by an upper side of the drainage grille facing away from the drip tray is aligned with the upper side of the worktop so that the upper side of the drainage grille is usable as an additional work surface and/or for standing objects on.
A bi-level auto-titration pressure support system comprising: (a) a pressure generating system adapted to generate a flow of breathing gas at an inspiratory positive airway pressure (IPAP) during inspiration and at an expiratory positive airway pressure (EPAP) during expiration; (b) a patient circuit having a first end adapted to be coupled to the pressure generating system and a second end adapted to be coupled to an airway of a patient; (c) a monitoring system associated with the patient circuit or the pressure generating system and adapted to measure a parameter indicative of a pressure at a patient's airway, a flow of gas in such a patient's airway, or both and to output a pressure signal, a flow signal indicative thereof, respectively, or both; and (d) a controller coupled to the monitoring system and the pressure generating system, for controlling the pressure generating system based on the output of the monitoring system, wherein the controller is programmed to monitor at least one of the following conditions: snoring, apneas, hypopneas, or a big leak in the pressure support system, wherein the big leak is a system leak that is substantially greater than any intentional system leaks, and wherein the controller adjusts the IPAP and the EPAP independently based on the occurrence of any one of conditions,,, or; characterized in that the controller, when adjusting the IPAP or EPAP or both, constraints a current pressure support level to a maximum pressure support level (PS max), a minimum pressure support level (PS min), or both, wherein the pressure support level, PS, is the IPAP minus the EPAP. (a) a pressure generating system adapted to generate a flow of breathing gas at an inspiratory positive airway pressure (IPAP) during inspiration and at an expiratory positive airway pressure (EPAP) during expiration; (b) a patient circuit having a first end adapted to be coupled to the pressure generating system and a second end adapted to be coupled to an airway of a patient; (c) a monitoring system associated with the patient circuit or the pressure generating system and adapted to measure a parameter indicative of a pressure at a patient's airway, a flow of gas in such a patient's airway, or both and to output a pressure signal, a flow signal indicative thereof, respectively, or both; and (d) a controller coupled to the monitoring system and the pressure generating system, for controlling the pressure generating system based on the output of the monitoring system, wherein the controller is programmed to monitor at least one of the following conditions: snoring, apneas, hypopneas, or a big leak in the pressure support system, wherein the big leak is a system leak that is substantially greater than any intentional system leaks, and wherein the controller adjusts the IPAP and the EPAP independently based on the occurrence of any one of conditions,,, or;
Bus arrangement for communication, a) with at least one local area bus for connecting communication terminals, b) with at least one second middle area bus for connecting at least two local area busses, c) with at least one remote area bus for connecting at least two middle area buses, d) where at least two of the buses are configured so as to be connected by wire, and a third bus allows for wireless communication on the basis of light waves. a) with at least one local area bus for connecting communication terminals, b) with at least one second middle area bus for connecting at least two local area busses, c) with at least one remote area bus for connecting at least two middle area buses, d) where at least two of the buses are configured so as to be connected by wire, and a third bus allows for wireless communication on the basis of light waves.
A compound for an organic photoelectric device, represented by the following Formula 1: wherein, in the above Formula 1, A 1 to A 5 are the same or different, and are CR 1 to CR 5 or N, provided that three or less of A 1 to A 5 are N, when one of A 1 to A 5 is N, the remaining four of A 1 to A 5 are respectively selected from the group consisting of CR 1 to CR 5, provided that at least two of R 1 to R 5 are not hydrogen, and when A 1 to A 5 are respectively CR 1 to CR 5, at least two of R 1 to R 5 are not hydrogen, and when A 1 to A 5 are respectively CR 1 to CR 5 the compound has an asymmetric structure where upper and lower substituents are different from each other with respect to the axis including A 3, B is selected from the group consisting of O, S Se, and NR", C and D are the same or different, and are independently selected from the group consisting of CR' and N, provided that when B is not NR", C is N, R 1 to R 5, R', and R" are independently selected from the group consisting of hydrogen, a halogen, a nitrile, a cyano, a nitro, an amide, a carbonyl, an ester, a substituted or unsubstituted alkoxy, a substituted or unsubstituted alkenyl, a substituted or unsubstituted cycloalkyl, a substituted or unsubstituted aryl, a substituted or unsubstituted arylamine, a substituted or unsubstituted heteroarylamine, a substituted or unsubstituted heterocycle, a substituted or unsubstituted amino, BR 6 R 7, and SiR 6 R 7 R 8, where R 6 to R 8 are the same or different, and are independently selected from the group consisting of a substituted or unsubstituted alkyl, and a substituted or unsubstituted aryl, E is selected from the group consisting of hydrogen, a nitrile, a cyano, a nitro, an amide, a carbonyl, a substituted or unsubstituted alkyl, a substituted or unsubstituted fluoroalkyl, a substituted or unsubstituted cycloalkyl, a substituted or unsubstituted aryl, a substituted or unsubstituted heterocycle, and SO 2 R 9, where R 9 is selected from the group consisting of a nitrile, a cyano, a nitro, an amide, a carboxyl, a substituted or unsubstituted alkyl, a substituted or unsubstituted cycloalkyl, a substituted or unsubstituted aryl, and a substituted or unsubstituted heterocycle, L is selected from the group consisting of a substituted or unsubstituted aryl and a substituted or unsubstituted heteroaryl, n is 1, and wherein the A 1 and A 5 are different from each other, and A 2 and A 4 are different.
A pelletized ethylene polymer having: • a density ≥ 953 kg/m 3 and ≤ 957 kg/m 3 ( according to ISO1183) • a high-load melt index (HLMI) ≥ 3 g/10 min and ≤ 12 g/10 min (according to ISO 1133; 190°C,21.6 kg) • an Izod impact strength(-30°C) ≥ 25 KJ/m 2 and ≤ 70 KJ/m 2 (according to ISO 180/A) and • M w / M n ≥ 8 and ≤ 16 (according to size exclusion chromatography measurement). • a density ≥ 953 kg/m 3 and ≤ 957 kg/m 3 ( according to ISO1183) • a high-load melt index (HLMI) ≥ 3 g/10 min and ≤ 12 g/10 min (according to ISO 1133; 190°C,21.6 kg) • an Izod impact strength(-30°C) ≥ 25 KJ/m 2 and ≤ 70 KJ/m 2 (according to ISO 180/A) and • M w / M n ≥ 8 and ≤ 16 (according to size exclusion chromatography measurement).
Energy storage module, which has the following: - a multiplicity of electrochemical cells for storing electrical energy; and - at least one contacting device for electrically contacting the multiplicity of electrochemical cells, wherein each of the multiplicity of electrochemical cells has a first flat connection lug for contacting a first electrode of the respective electrochemical cell and a second flat connection lug for contacting a second electrode of the respective electrochemical cell, wherein the multiplicity of electrochemical cells is arranged in a stacked formation and forms a cell pack in such a way that the first and second flat connection lugs (111, 112) extend from two opposite sides of the cell pack in an at least substantially perpendicular manner, wherein the at least one contacting device is substantially comb-shaped and has a multiplicity of prongs (211, 221), which are formed and arranged in such a way that a first or second connection lug (111, 112) can be received or is received between two adjacent prongs (211, 221), characterized in that the at least one contacting device has at least one busbar and at least one carrier, wherein the at least one busbar and the at least one carrier are comb-shaped and have the multiplicity of prongs (211, 221). - a multiplicity of electrochemical cells for storing electrical energy; and - at least one contacting device for electrically contacting the multiplicity of electrochemical cells, wherein each of the multiplicity of electrochemical cells has a first flat connection lug for contacting a first electrode of the respective electrochemical cell and a second flat connection lug for contacting a second electrode of the respective electrochemical cell, wherein the multiplicity of electrochemical cells is arranged in a stacked formation and forms a cell pack in such a way that the first and second flat connection lugs (111, 112) extend from two opposite sides of the cell pack in an at least substantially perpendicular manner, wherein the at least one contacting device is substantially comb-shaped and has a multiplicity of prongs (211, 221), which are formed and arranged in such a way that a first or second connection lug (111, 112) can be received or is received between two adjacent prongs (211, 221), characterized in that the at least one contacting device has at least one busbar and at least one carrier, wherein the at least one busbar and the at least one carrier are comb-shaped and have the multiplicity of prongs (211, 221).
A method for damping rotational oscillation about a vertical axis of a load-handling element of a lifting device by means of a damping controller having at least one controller parameter, wherein the load-handling element is connected to a suspension element of the lifting device by means of at least three holding elements and the length of at least one holding element between the load-handling element and the suspension element is adjusted by the damping controller by means of an actuator, which acts on the at least one holding element, wherein the at least one controller parameter is determined by means of a rotational oscillation model of the load-handling element as a function of the lifting height (l H), wherein in order to damp the rotational oscillation of the load-handling element at any lifting height (l H), the at least one controller parameter is adapted to said lifting height (l H), characterized in that the load-handling element is excited to rotationally oscillate at a certain lifting height (l H) of the load-handling element, that at the same time at least an actual angle of rotation (β ist) of the load-handling element about the vertical axis and an actual actuator position (s ist) are sensed and, by means thereof, model parameters of the rotational oscillation model of the load-handling element at the given lifting height (l H) are identified by means of an identification method.
A laser comprising: a power supply comprising three noise filter capacitors (12a, 12b, 12c) and three second capacitors (17a, 17b, 17c) inside it and configured to be supplied with power from a 3-phase AC power line, wherein the second capacitors (17a, 17b, 17c) have electrostatic capacities smaller than those of the first three noise filter capacitors (12a, 12b, 12c), and an external ground fault protection device comprising a voltage measuring unit configured to use said capacitors (12a, 12b, 12c, 17a, 17b, 17c) to measure voltages between each of the phases of said 3-phase AC power line and a ground and a power breaking unit configured to compare the values of voltages measured by said voltage measuring unit and a predetermined threshold and to break the supply of power from said 3-phase AC power line to said power supply when the value of a voltage exceeds the threshold. a power supply comprising three noise filter capacitors (12a, 12b, 12c) and three second capacitors (17a, 17b, 17c) inside it and configured to be supplied with power from a 3-phase AC power line, wherein the second capacitors (17a, 17b, 17c) have electrostatic capacities smaller than those of the first three noise filter capacitors (12a, 12b, 12c), and an external ground fault protection device comprising a voltage measuring unit configured to use said capacitors (12a, 12b, 12c, 17a, 17b, 17c) to measure voltages between each of the phases of said 3-phase AC power line and a ground and a power breaking unit configured to compare the values of voltages measured by said voltage measuring unit and a predetermined threshold and to break the supply of power from said 3-phase AC power line to said power supply when the value of a voltage exceeds the threshold.
A method for controlling a production system of a rolling mill for the production of a coil-shaped end product from a slab, the production comprising processing the slab by sequentially arranged production units, a respective strip-shaped product resulting from the processing by the production units, the end product resulting as a product from the processing by the last of the production units, the method comprising receiving physical data of a strip-shaped product, to be tested, of the products, which results from the processing by a given production unit of the production units, the physical data encompassing a geometry and/or a weight, the method comprising a testing procedure, the testing procedure comprising: - modeling, under consideration of the physical data, the processing of the product to be tested by a plurality of the production units arranged downstream from the given production unit; - in case the modelling shows that, under consideration of the physical data, one of the products resulting from the processing by the downstream production units does not meet a predetermined quality criterion, terminating the intended production of the product and outputting a signal regarding the termination. - modeling, under consideration of the physical data, the processing of the product to be tested by a plurality of the production units arranged downstream from the given production unit; - in case the modelling shows that, under consideration of the physical data, one of the products resulting from the processing by the downstream production units does not meet a predetermined quality criterion, terminating the intended production of the product and outputting a signal regarding the termination.
An assembly for the orthodontic treatment of a patient's teeth, the assembly being made in one p iece and comprising a pearl and a cap, the pearl being provided with a slot into which an orthodontic wire can be inserted, the cap being shaped individually to the shape of the tooth, wherein the cap is connected to the pearl, wherein in addition the cap is provided with an arm having a free end and wherein the assembly further comprises a connector, the connector being breakable so that the cap is separated from the pearl by breaking the connector.
Deformation-hardened component made of galvanized steel, in which firstly a plate is cut from a steel strip or steel sheet coated with zinc or with a zinc-based alloy, then the plate is heated to a deformation temperature above Ac3 and deformed and thus hardened, comprising an at least partially martensitic transformation structure after forming, wherein the steel has the following chemical composition in wt.% C: 0.10-0.50 Si: 0.01-0.50 Mn: 0.50-2.50 P<0.02 S<0.01 N<0.01 Al: 0.015-0.100 B<0.004 remainder iron, including unavoidable smelting-induced, steel-accompanying elements, having at least one element from the group Nb, V, Ti, wherein the total of the contents of Nb+V+Ti is in a range of 0.01 to 0.20 wt.%, wherein the structure of the steel after deformation-hardening comprises an average grain size of the former austenite grains of <15 μm. C: 0.10-0.50 Si: 0.01-0.50 Mn: 0.50-2.50 P<0.02 S<0.01 N<0.01 Al: 0.015-0.100 B<0.004 remainder iron, including unavoidable smelting-induced, steel-accompanying elements, having at least one element from the group Nb, V, Ti, wherein the total of the contents of Nb+V+Ti is in a range of 0.01 to 0.20 wt.%, wherein the structure of the steel after deformation-hardening comprises an average grain size of the former austenite grains of <15 μm.
A method, comprising: encoding a sequence of random qubit states onto an optical signal having a first wavelength, characterized in that it further comprises the step of changing the first wavelength of the optical signal to a shorter second wavelength of less than one micron, and thereafter transmitting the optical signal having the shorter second wavelength with the encoded sequence of random qubit states in accordance with a faint pulse quantum key distribution scheme comprising on average less than one photon per pulse. encoding a sequence of random qubit states onto an optical signal having a first wavelength, characterized in that it further comprises the step of changing the first wavelength of the optical signal to a shorter second wavelength of less than one micron, and thereafter transmitting the optical signal having the shorter second wavelength with the encoded sequence of random qubit states in accordance with a faint pulse quantum key distribution scheme comprising on average less than one photon per pulse.
A radar system, comprising: a pair of Active Electronically Scanned Array (AESA) panels (104, 106), the pair of AESA panels respectively positioned on two opposing sides of a central axis, wherein a pointing direction of the first AESA panel is offset by a predetermined angle (α) in a clockwise direction with respect to the central axis and a pointing direction of the second AESA panel is offset by the predetermined angle (α) in a counterclockwise direction with respect to the central axis, wherein the AESA panels are adapted to be installed on an aircraft; and a controller in communication with each of the pair of AESA panels, wherein: the first AESA panel is activateable individually for providing a first coverage area in a first direction offset from the central axis, the second AESA panel in activateable individually for providing a second coverage area in a second direction offset from the central axis, and the pair of AESA panels (104, 106) is activateable jointly for providing a third coverage area between the first coverage area and the second coverage area, wherein the controller is configured for selectively activating the AESA panels individually or as a pair, wherein the central axis coincides with a longitudinal axis of the aircraft, and wherein the AESA panels are installed in a nosecone radome of the aircraft. a pair of Active Electronically Scanned Array (AESA) panels (104, 106), the pair of AESA panels respectively positioned on two opposing sides of a central axis, wherein a pointing direction of the first AESA panel is offset by a predetermined angle (α) in a clockwise direction with respect to the central axis and a pointing direction of the second AESA panel is offset by the predetermined angle (α) in a counterclockwise direction with respect to the central axis, wherein the AESA panels are adapted to be installed on an aircraft; and a controller in communication with each of the pair of AESA panels, wherein: the first AESA panel is activateable individually for providing a first coverage area in a first direction offset from the central axis, the second AESA panel in activateable individually for providing a second coverage area in a second direction offset from the central axis, and the pair of AESA panels (104, 106) is activateable jointly for providing a third coverage area between the first coverage area and the second coverage area, the first AESA panel is activateable individually for providing a first coverage area in a first direction offset from the central axis, the second AESA panel in activateable individually for providing a second coverage area in a second direction offset from the central axis, and the pair of AESA panels (104, 106) is activateable jointly for providing a third coverage area between the first coverage area and the second coverage area,