mhurhangee/ep-ind-claims huggingface dataset:
A discharge method for discharging an at least partially flexible container without any contamination, wherein the container is discharged into a base body, a liner enclosing a filling opening of the base body being fastened to the base body, comprising the following sequence of process steps: a. folding the liner inward, the latter being sealed by a filling end so that the liner seals the filling opening and so a receiving area being created into which the container may be completely inserted; b. inserting the container into the receiving area, the liner extending with an at least double-walled end over the container and totally surrounding the container at least with the at least double-walled end; c. sealing the liner so that the receiving area is sealed; d. opening the liner in the receiving area and the container so that a discharge opening through which the contents of the container can pass is produced between the container and the filling opening, the receiving area and the filling opening being sealed to the outside; e. discharging of the container; f. sealing the liner between the container and the filling opening in at least one sealing region; and g. separating the liner at a separation point within the sealing region or between two sealing regions created a distance apart from one another so that a sealed end is provided as a filling end on the side of the filling opening. a. folding the liner inward, the latter being sealed by a filling end so that the liner seals the filling opening and so a receiving area being created into which the container may be completely inserted; b. inserting the container into the receiving area, the liner extending with an at least double-walled end over the container and totally surrounding the container at least with the at least double-walled end; c. sealing the liner so that the receiving area is sealed; d. opening the liner in the receiving area and the container so that a discharge opening through which the contents of the container can pass is produced between the container and the filling opening, the receiving area and the filling opening being sealed to the outside; e. discharging of the container; f. sealing the liner between the container and the filling opening in at least one sealing region; and g. separating the liner at a separation point within the sealing region or between two sealing regions created a distance apart from one another so that a sealed end is provided as a filling end on the side of the filling opening.
An electronic device locking system, comprising: a display member coupled to a base member to enable variable positioning of the display member relative to the base member; a retractable cap located in an opening in the base member; and a post (48, 50) extending outwardly from the display member and insertable into the opening to force the retractable cap to a retracted position and engagable with a latch to secure the display member in a fixed position relative to the base member, wherein the post comprises a recess, wherein the retractable cap is disposed on a cap support member having an arm slideably engagable with a ramp disposed on an extension of a slider arm of the latch, wherein forcing the retractable cap to the retracted position causes movement of the arm along the ramp so that a biasing mechanism urges the slider arm to be inserted into the recess of the post (48, 50). a display member coupled to a base member to enable variable positioning of the display member relative to the base member; a retractable cap located in an opening in the base member; and a post (48, 50) extending outwardly from the display member and insertable into the opening to force the retractable cap to a retracted position and engagable with a latch to secure the display member in a fixed position relative to the base member, wherein the post comprises a recess, wherein the retractable cap is disposed on a cap support member having an arm slideably engagable with a ramp disposed on an extension of a slider arm of the latch, wherein forcing the retractable cap to the retracted position causes movement of the arm along the ramp so that a biasing mechanism urges the slider arm to be inserted into the recess of the post (48, 50).
A hydraulic press with integrated cutting shock dampening, comprising a machine frame with a press table, a working tool mounted in the machine frame for exerting a forming force on a workpiece to be arranged on a press table during a processing operation, and at least one pressing cylinder and at least one counter-acting cylinder respectively secured on the machine frame, wherein the pressing cylinder is mechanically connected via a pressing cylinder rod and the counter-acting cylinder is mechanically connected via a counter-acting cylinder rod to the working tool for moving the working tool, wherein the pressing cylinder is connected via a first continuous valve to a first hydraulic arrangement under a first pressure for moving the pressing cylinder, characterized in that the counter-acting cylinder is connected via a second continuous valve to a second hydraulic arrangement, designed to function separately from the first hydraulic arrangement, under a second pressure for moving the counter-acting cylinder, and the first and second continuous valves (91, 92) are connected to a control unit, wherein the control unit is designed to control the continuous valves (91, 92) for pressurizing the pressing and counter-acting cylinders (6, 7) simultaneously and in a manner adapted to one another such that an axial pretension exerted by the counter-acting cylinder and the pressing cylinder via the machine frame and the working tool does not fall below a minimum value, providable by the control unit, for providing the cutting shock dampening at least during the processing operation and that, at the same time, a desired movement of the working tool is made possible.
A compound having the structure of Formula or a pharmaceutically acceptable stereoisomer, racemate, hydrate, solvate, isotope, or salt thereof: wherein represents an optional double bond; A and B are independently nitrogen or oxygen, with the proviso that A and B are not both oxygen; G is nitrogen or carbon; X is halogen, C 1-8 -alkyl, C 1-8 -haloalkyl, C 1-8 -alkoxy, or cyano; R 1 is hydrogen, C 1-8 -alkyl-R 6, haloalkyl, C 1-8 -alkoxyalkyl, -cycloalkyl-R 6, -alkyl-cycloalkyl-R 6, -aryl-R 6, -alkyl-aryl-R 6, -heterocyclyl-R 6, -alkyl-heterocyclyl-R 6, C 1-8 -haloalkyl, -alkyl-C(=O)R 3, or -C(=O)R 3; R 1b and R 1c are independently hydrogen, C 1-8 -alkyl, or spiroalkyl; R 2 is -Q-(R 4) n, -S(=O) 2 R 5, or -C(=O)R 5; R 3 is C 1-8 -alkyl, C 1-8 -haloalkyl, C 1-8 -alkoxy, C 1-8 -haloalkoxy, -cycloalkyl-R 6, -O-cycloalkyl-R 6,-O-heterocyclyl-R 6, -NHR 5, or -NR 5 R 5; or R 1b and R 1 or R 1b and R 3, together with the atoms to which they are attached, form a ring; Q is aryl or heteroaryl; each R 4 is independently halogen, hydroxy, C 1-8 -alkyl, C 1-8 -haloalkyl, C 1-8 -alkoxy, C 1-8 -haloalkoxyalkyl, or cyano; each R 5 is independently cycloalkyl, C 1-8 -alkyl, C 1-8 -haloalkyl, cycloalkylalkyl, C 1-8 -alkoxy, heterocyclyl, or -O-heterocyclyl; R 6 is hydrogen, halo, alkyl, C 1-8 -haloalkyl, or cyano; and n is 0, 1, or 2. represents an optional double bond; A and B are independently nitrogen or oxygen, with the proviso that A and B are not both oxygen; G is nitrogen or carbon; X is halogen, C 1-8 -alkyl, C 1-8 -haloalkyl, C 1-8 -alkoxy, or cyano; R 1 is hydrogen, C 1-8 -alkyl-R 6, haloalkyl, C 1-8 -alkoxyalkyl, -cycloalkyl-R 6, -alkyl-cycloalkyl-R 6, -aryl-R 6, -alkyl-aryl-R 6, -heterocyclyl-R 6, -alkyl-heterocyclyl-R 6, C 1-8 -haloalkyl, -alkyl-C(=O)R 3, or -C(=O)R 3; R 1b and R 1c are independently hydrogen, C 1-8 -alkyl, or spiroalkyl; R 2 is -Q-(R 4) n, -S(=O) 2 R 5, or -C(=O)R 5; R 3 is C 1-8 -alkyl, C 1-8 -haloalkyl, C 1-8 -alkoxy, C 1-8 -haloalkoxy, -cycloalkyl-R 6, -O-cycloalkyl-R 6,-O-heterocyclyl-R 6, -NHR 5, or -NR 5 R 5; or R 1b and R 1 or R 1b and R 3, together with the atoms to which they are attached, form a ring; Q is aryl or heteroaryl; each R 4 is independently halogen, hydroxy, C 1-8 -alkyl, C 1-8 -haloalkyl, C 1-8 -alkoxy, C 1-8 -haloalkoxyalkyl, or cyano; each R 5 is independently cycloalkyl, C 1-8 -alkyl, C 1-8 -haloalkyl, cycloalkylalkyl, C 1-8 -alkoxy, heterocyclyl, or -O-heterocyclyl; R 6 is hydrogen, halo, alkyl, C 1-8 -haloalkyl, or cyano; and n is 0, 1, or 2.
A safety device for a pre-filled syringe, comprising - a hollow support body (1.2) suitable for retaining the pre-filled syringe therein such that a hypodermic needle (2.1) of the pre-filled syringe protrudes the support body (1.2) in a distal direction, - a hollow needle shield (1.1) and - a spring means (1.4) made from a resilient plastics material, wherein the needle shield (1.1) is telescoped with the support body (1.2) and the spring means (1.4) is arranged between the needle shield (1.1) and the support body (1.2) and biases the needle shield (1.1) in the distal direction, wherein the hollow support body (1.2) is suitable for substantially containing the pre-filled syringe when the pre-filled syringe is retained within the support body (1.2), wherein the spring means (1.4) comprises a plurality of generally L-shaped resilient spring leaves (1.4.1), characterized in that the needle shield (1.1) comprises a plurality of substantially planar or convex first side walls (1.1.2), wherein the spring leaves (1.4.1) are oriented relative to each other at an angle, wherein each spring leaf (1.4.1) is arranged adjacent to one of the first side walls (1.1.2) of the needle shield (1.1) in a plane substantially parallel the first side wall (1.1.2) of the needle shield (1.1). - a hollow support body (1.2) suitable for retaining the pre-filled syringe therein such that a hypodermic needle (2.1) of the pre-filled syringe protrudes the support body (1.2) in a distal direction, - a hollow needle shield (1.1) and - a spring means (1.4) made from a resilient plastics material,
High power, high frequency resonant load inverter system for providing increased output power when operating an inductive load in an induction heating or contact welding operation device, the system comprising: - an inverter device which is subdivided into sections, each section comprising two sets of current switches, each set having two switch means connected in series, each set having an output at a midpoint between said means for feeding a respective input terminal on a power load having an LC resonant compensation, and a main driver circuit for controlling each switch means of each set, and said switch means each being an IGBT (Insulated Gate Bipolar Transistor), characterized in that the inverter system provides an operation frequency in the range of 75 kHz - 500 kHz, and an output power in the range of 10 kW - 5 MW; and that said inverter device operates with a reduced switching frequency which is lower than a LC resonant frequency by providing driver signals from said main driver unit to all sections simultaneously to cause all sections to deliver current output during only one cycle of the switching frequency, thus causing all sections to deliver current output at a rate l/n of said resonant frequency, n being the number of sections. - an inverter device which is subdivided into sections, each section comprising two sets of current switches, each set having two switch means connected in series, each set having an output at a midpoint between said means for feeding a respective input terminal on a power load having an LC resonant compensation, and a main driver circuit for controlling each switch means of each set, and said switch means each being an IGBT (Insulated Gate Bipolar Transistor), characterized in that the inverter system provides an operation frequency in the range of 75 kHz - 500 kHz, and an output power in the range of 10 kW - 5 MW; and that said inverter device operates with a reduced switching frequency which is lower than a LC resonant frequency by providing driver signals from said main driver unit to all sections simultaneously to cause all sections to deliver current output during only one cycle of the switching frequency, thus causing all sections to deliver current output at a rate l/n of said resonant frequency, n being the number of sections.
Method for detecting wear, damage to the gearing and/or damage to the bearings, in an engine transmission unit, having an engine and a transmission which is coupled to the engine on its output side, in which - when the transmission is put into motion by the engine, an input and/or output torque is either directly determined, or indirectly as a measurement variable which can be unambiguously correlated with the input and/or output torque, by means of a detection module, in order to generate a signal curve (21, 22, 31) for such motion which describes each directly or indirectly determined input and/or output torque in dependency on a variable which correlates with the position of the transmission, - at least some of these signal curves (21, 22, 31) are automatically evaluated, wherein a range of the variable which correlates with the position of the transmission is identified, to which a value which is typical for a transmission defect can be assigned for the respective signal curve (21, 22, 23), characterized in that - the identified range is automatically assigned to a class of a histogram (51, 52) and - it is automatically verified whether there is an unexpected proliferation of entries in any class in the histogram (51, 52), indicating the presence of wear and/or damage to the transmission. - when the transmission is put into motion by the engine, an input and/or output torque is either directly determined, or indirectly as a measurement variable which can be unambiguously correlated with the input and/or output torque, by means of a detection module, in order to generate a signal curve (21, 22, 31) for such motion which describes each directly or indirectly determined input and/or output torque in dependency on a variable which correlates with the position of the transmission, - at least some of these signal curves (21, 22, 31) are automatically evaluated, wherein a range of the variable which correlates with the position of the transmission is identified, to which a value which is typical for a transmission defect can be assigned for the respective signal curve (21, 22, 23), characterized in that - the identified range is automatically assigned to a class of a histogram (51, 52) and - it is automatically verified whether there is an unexpected proliferation of entries in any class in the histogram (51, 52), indicating the presence of wear and/or damage to the transmission.
Current sensor, in particular for a vehicle battery in a vehicle, with an electrical conductor which has a first connection and a second connection for contacting a power circuit of a vehicle, and with a first current measurement device and a second current measurement device for detecting at least one measurement value for the current flowing over the electrical conductor, and with a first evaluation circuit which is connected to the first current measurement device and/or the second current measurement device and can receive the measurement values of the first current measurement device and/or the second current measurement device and output a current measurement signal depending on the measurement values, and with a second evaluation circuit, wherein a communications link is provided between the first evaluation circuit and the second evaluation circuit, characterized in that the first evaluation circuit can send a first test signal to the second evaluation circuit and/or the second evaluation circuit can send a second test signal to the first evaluation circuit, wherein the first evaluation circuit can check the second test signal and can send a first correction signal when the second test signal deviates from a second reference value and/or wherein the second evaluation circuit can check the first test signal and can send a second correction signal when the first test signal deviates from a first reference value.
A medical system comprising: a dialysis machine having at least one outside surface to be disinfected at a given location; at least one disinfection sensor connected to the dialysis machine at the given location, the disinfection sensor comprising: two or more electrodes in fluid contact with the outside surface of the dialysis machine, and a conductivity sensor component in electrical contact with the two or more electrodes, the conductivity sensor component configured to send an electrical signal indicating a conductivity of a liquid on an outside surface of the dialysis machine and in contact with the two or more electrodes; a processor (150, 710) configured to receive the electrical signal and thereby determine a disinfection status of the given location; and a user interface configured to indicate the disinfection status of the given location. a dialysis machine having at least one outside surface to be disinfected at a given location; at least one disinfection sensor connected to the dialysis machine at the given location, the disinfection sensor comprising: two or more electrodes in fluid contact with the outside surface of the dialysis machine, and a conductivity sensor component in electrical contact with the two or more electrodes, the conductivity sensor component configured to send an electrical signal indicating a conductivity of a liquid on an outside surface of the dialysis machine and in contact with the two or more electrodes; two or more electrodes in fluid contact with the outside surface of the dialysis machine, and a conductivity sensor component in electrical contact with the two or more electrodes, the conductivity sensor component configured to send an electrical signal indicating a conductivity of a liquid on an outside surface of the dialysis machine and in contact with the two or more electrodes; a processor (150, 710) configured to receive the electrical signal and thereby determine a disinfection status of the given location; and a user interface configured to indicate the disinfection status of the given location.
A weight lifting plate comprising a) a body having a first side, a second side, and a center of gravity; b) a shaped central aperture disposed in said body for placing the weight lifting plate on a bar, said shaped central aperture having a length and a width; i) wherein said length is longer than said width; ii) wherein said shaped central aperture has a substantially rectangular cross section; characterised by c) one or more ball bearings (200a, 200b) disposed in said body and extending at least partially into said shaped central aperture; and d) wherein said center of gravity of said weight lifting plate is disposed within said shaped central aperture; wherein the shaped central aperture is configured for receiving four fingers of one hand of a user simultaneously therethrough ensuring that each of said four fingers is disposed adjacent to at least one of said one or more ball bearings, so that the weight-lifting plate can be lifted by the one hand of the user. a) a body having a first side, a second side, and a center of gravity; b) a shaped central aperture disposed in said body for placing the weight lifting plate on a bar, said shaped central aperture having a length and a width; i) wherein said length is longer than said width; ii) wherein said shaped central aperture has a substantially rectangular cross section; characterised by i) wherein said length is longer than said width; ii) wherein said shaped central aperture has a substantially rectangular cross section; characterised by c) one or more ball bearings (200a, 200b) disposed in said body and extending at least partially into said shaped central aperture; and d) wherein said center of gravity of said weight lifting plate is disposed within said shaped central aperture;
A method for determining eye openness with an eye tracking device, wherein the method comprises: receiving, at one or more processors, an image of an eye of a user from an image sensor of an eye tracking device; determining, with the one or more processors, based on the image of the eye, a radius of the pupil; determining, with the one or more processors, based on the radius of the pupil, a total area of the pupil; determining, with the one or more processors, based on the image of the eye and the radius of the pupil, an amount of the total area of the pupil which is not obscured by either eyelid; and determining, with the one or more processors, based on the amount of the total area of the pupil which is not obscured by the eyelid and the total area of the pupil, whether the eye of the user is closed. receiving, at one or more processors, an image of an eye of a user from an image sensor of an eye tracking device; determining, with the one or more processors, based on the image of the eye, a radius of the pupil; determining, with the one or more processors, based on the radius of the pupil, a total area of the pupil; determining, with the one or more processors, based on the image of the eye and the radius of the pupil, an amount of the total area of the pupil which is not obscured by either eyelid; and determining, with the one or more processors, based on the amount of the total area of the pupil which is not obscured by the eyelid and the total area of the pupil, whether the eye of the user is closed.
A WDM-PON transmitter configured to analyze an optical fiber, the transmitter comprising - a plurality of light sources (111, 112) configured to respectively generate a plurality of optical signals at different wavelengths; - a multiplexing unit configured to combine the plurality of optical signals for transmission over the optical fiber; - a tapping unit downstream of the multiplexing unit configured to extract a backscattered optical signal from the fiber; - a single optical receiver configured to convert the backscattered optical signal into an electrical response signal; - a test pattern scheduling unit configured to generate an electrical test signal and to simultaneously pass the test signal to each of the plurality of light sources (111, 112) by means of at least one test pattern insertion unit (221, 222); and - analysis means configured to analyze the electrical response signal; wherein the analysis means comprise a control and analysis unit configured to - receive the electrical response signal; wherein the response signal is associated with the test signal passed to the plurality of light sources (111, 112); and - determine information associated with the fiber based on the electrical test signal and the electrical response signal. - a plurality of light sources (111, 112) configured to respectively generate a plurality of optical signals at different wavelengths; - a multiplexing unit configured to combine the plurality of optical signals for transmission over the optical fiber; - a tapping unit downstream of the multiplexing unit configured to extract a backscattered optical signal from the fiber; - a single optical receiver configured to convert the backscattered optical signal into an electrical response signal; - a test pattern scheduling unit configured to generate an electrical test signal and to simultaneously pass the test signal to each of the plurality of light sources (111, 112) by means of at least one test pattern insertion unit (221, 222); and - analysis means configured to analyze the electrical response signal; wherein the analysis means comprise a control and analysis unit configured to - receive the electrical response signal; wherein the response signal is associated with the test signal passed to the plurality of light sources (111, 112); and - determine information associated with the fiber based on the electrical test signal and the electrical response signal. - receive the electrical response signal; wherein the response signal is associated with the test signal passed to the plurality of light sources (111, 112); and - determine information associated with the fiber based on the electrical test signal and the electrical response signal.