mhurhangee/ep-ind-claims huggingface dataset:
Method for producing evaluation data, wherein - output data, which are produced in a hospital in medical and/or logistical and/or administrative processes, are stored in a database, - changes of the output data stored in the database are continuously monitored by a database trigger and in case of a change of output data an evaluation request for evaluating output data is generated, output data are stored or modified in the database by a process executed by a program module, whereby an evaluation request for evaluating output data is generated simultaneously and/or an evaluation request for evaluating output data is generated when a predetermined event occurs in the form of a predetermined point of time or a predetermined duration being reached, wherein the evaluation request for evaluating output data is stored in a table located in the database, - it is checked whether an evaluation request has been generated and has been stored in the table and in case an evaluation request is present, an evaluation program stored in a memory for executing an evaluation method depending on the evaluation request is started and - the evaluation method accesses output data stored in the database depending on the evaluation request and generates evaluation data from the output data, said evaluation data comprising key performance indicators of the medical and/or logistical and/or administrative processes in the hospital. - output data, which are produced in a hospital in medical and/or logistical and/or administrative processes, are stored in a database, - changes of the output data stored in the database are continuously monitored by a database trigger and in case of a change of output data an evaluation request for evaluating output data is generated, output data are stored or modified in the database by a process executed by a program module, whereby an evaluation request for evaluating output data is generated simultaneously and/or an evaluation request for evaluating output data is generated when a predetermined event occurs in the form of a predetermined point of time or a predetermined duration being reached, wherein the evaluation request for evaluating output data is stored in a table located in the database, - it is checked whether an evaluation request has been generated and has been stored in the table and in case an evaluation request is present, an evaluation program stored in a memory for executing an evaluation method depending on the evaluation request is started and - the evaluation method accesses output data stored in the database depending on the evaluation request and generates evaluation data from the output data, said evaluation data comprising key performance indicators of the medical and/or logistical and/or administrative processes in the hospital.
A method for decoding a video frame of a video sequence, the method comprising: (a) receiving a slice; (b) receiving a flag for determining an initialization method corresponding to the received slice; and (c) initializing a Context-Adaptive Binary Arithmetic Coding context associated with a slice type of the received slice using one of a first initialization method and a second initialization method based on at least the slice type and the value of the flag, characterised in that in a case that the slice type is the B slice type and the value of the flag is equal to one, a Context-Adaptive Binary Arithmetic Coding context associated with the B slice type is initialized by the second initialization method; and in a case that the slice type is the B slice type and the value of the flag is equal to zero, the Context-Adaptive Binary Arithmetic Coding context associated with the B slice type is initialized by the first initialization method, wherein the first initialization method is used for initializing a Context-Adaptive Binary Arithmetic Coding context associated with a P slice type in a case that the slice type is the P slice type and the value of the flag is equal to one. (a) receiving a slice; (b) receiving a flag for determining an initialization method corresponding to the received slice; and (c) initializing a Context-Adaptive Binary Arithmetic Coding context associated with a slice type of the received slice using one of a first initialization method and a second initialization method based on at least the slice type and the value of the flag, characterised in that
A control device configured to control a plurality of motors respectively driving different axes of a machine tool or robot, the control device comprising: a first program executing unit that executes a sequence program for each control cycle; and a second program executing unit that calculates an instruction value for each motor in accordance with a numerical control program; wherein the sequence program includes a control command for controlling a process of executing the numerical control program in the second program executing unit, wherein the first program executing unit gives an instruction relevant to execution of the numerical control program in the second program executing unit in accordance with the control command included in the sequence program, the control device being further characterized in further comprising; a state managing unit that manages a control state indicating an operation state of each axis group, wherein an axis group includes a plurality of predetermined motors of the plurality of motors, wherein the state managing unit updates the control state based on at least one of the instruction from the first program executing unit and an execution state of the numerical control program in the second program executing unit, and wherein the first program executing unit calculates an operation result based on the sequence program in reflection of a value of the control state managed by the state managing unit and in accordance with a command (642, 652) referring to the control state included in the sequence program. a first program executing unit that executes a sequence program for each control cycle; and a second program executing unit that calculates an instruction value for each motor in accordance with a numerical control program; wherein the sequence program includes a control command for controlling a process of executing the numerical control program in the second program executing unit, wherein the first program executing unit gives an instruction relevant to execution of the numerical control program in the second program executing unit in accordance with the control command included in the sequence program, the control device being further characterized in further comprising; a state managing unit that manages a control state indicating an operation state of each axis group, wherein an axis group includes a plurality of predetermined motors of the plurality of motors, wherein the state managing unit updates the control state based on at least one of the instruction from the first program executing unit and an execution state of the numerical control program in the second program executing unit, and wherein the first program executing unit calculates an operation result based on the sequence program in reflection of a value of the control state managed by the state managing unit and in accordance with a command (642, 652) referring to the control state included in the sequence program.
Fill level measurement device comprising: a first radar chip and a second radar chip that is synchronised with the first radar chip, which radar chips each comprise one or more transmission channels (112, 113; 320, 321), each configured to radiate a transmission signal, and one or more reception channels (112, 113; 320, 321), each configured to receive the transmission signals reflected at the filling material surface; an evaluation circuit that is connected to the first and second radar chips by means of a data line assembly (305, 306, 307, 308) and is configured to calculate a fill level and/or a topology of the filling material surface of a medium in a container from the transmission signals received by the first and second radar chips; a clock line assembly that connects the first radar chip to the evaluation circuit and that is configured to provide the evaluation circuit with a common clock signal for evaluating the reception signals of the first radar chip and the reception signals of the second radar chip; wherein the fill level measurement device comprises a plurality of radar chips (302, 303); wherein a clock line assembly connecting the radar chip to the evaluation circuit is not provided for every radar chip, in order to provide the evaluation circuit with a clock signal of the radar chip; wherein each radar chip without clock line assembly is synchronised with the radar chip, for which a clock line assembly is provided. a first radar chip and a second radar chip that is synchronised with the first radar chip, which radar chips each comprise one or more transmission channels (112, 113; 320, 321), each configured to radiate a transmission signal, and one or more reception channels (112, 113; 320, 321), each configured to receive the transmission signals reflected at the filling material surface; an evaluation circuit that is connected to the first and second radar chips by means of a data line assembly (305, 306, 307, 308) and is configured to calculate a fill level and/or a topology of the filling material surface of a medium in a container from the transmission signals received by the first and second radar chips; a clock line assembly that connects the first radar chip to the evaluation circuit and that is configured to provide the evaluation circuit with a common clock signal for evaluating the reception signals of the first radar chip and the reception signals of the second radar chip; wherein the fill level measurement device comprises a plurality of radar chips (302, 303); wherein a clock line assembly connecting the radar chip to the evaluation circuit is not provided for every radar chip, in order to provide the evaluation circuit with a clock signal of the radar chip; wherein each radar chip without clock line assembly is synchronised with the radar chip, for which a clock line assembly is provided.
A vehicle body comprising a vehicle-body structure for an automobile, the vehicle-body structure comprising: a floor panel constituting a floor of an occupant space including at least one seat (FS, FB) on which a passenger is able to sit; a center frame disposed to be higher than and away from the floor panel at a vehicle-width-direction central portion of the occupant space and extending in a vehicle front-rear direction; wherein the vehicle body comprises an air-conditioning device for sending air-conditioned air to the occupant space, wherein the air-conditioning device includes an air distribution portion that is positioned higher than a front portion of the center frame and distributes generated air-conditioned air to each portion of the occupant space, characterized in that the air-conditioning device includes an under-feet duct (124A, 124B) that guides, to a lower side, air-conditioned air sent from the air distribution portion, and the under-feet duct (124A, 124B) extends downward from an upper side of the center frame through a vehicle-width-direction outer side of the center frame. a floor panel constituting a floor of an occupant space including at least one seat (FS, FB) on which a passenger is able to sit; a center frame disposed to be higher than and away from the floor panel at a vehicle-width-direction central portion of the occupant space and extending in a vehicle front-rear direction; wherein the vehicle body comprises an air-conditioning device for sending air-conditioned air to the occupant space, wherein the air-conditioning device includes an air distribution portion that is positioned higher than a front portion of the center frame and distributes generated air-conditioned air to each portion of the occupant space, characterized in that the air-conditioning device includes an under-feet duct (124A, 124B) that guides, to a lower side, air-conditioned air sent from the air distribution portion, and the under-feet duct (124A, 124B) extends downward from an upper side of the center frame through a vehicle-width-direction outer side of the center frame.
A composition comprising a neutrally-extracted kappa carrageenan that has been subjected to an ion exchange process, wherein the kappa carrageenan comprises: a potassium content of 4 mg/g to 30 mg/g carrageenan; a calcium content of less than 3 mg/g carrageenan; and a magnesium content of less than 3 mg/g carrageenan. a potassium content of 4 mg/g to 30 mg/g carrageenan; a calcium content of less than 3 mg/g carrageenan; and a magnesium content of less than 3 mg/g carrageenan.
A device in a network comprising: - a data repository in a memory (71, 76) for storing a policy defining a content based classification of VLANs for designated content of packets; - a packet processor for retrieving the policy defining content based classification of VLANs for designated content of packets from the data repository and assigning a VLAN to a packet received from a node based on inspection of a content of the packet and the policy defining content based classification of VLANs for designated content of packets, a VLAN tag being inserted with a VLAN ID into the packet at the packet processor; wherein the device further comprises a processor for receiving the policy defining content based classification of VLANs from a network management station and storing it at said data repository, and wherein the content is one of a TCP/UDP port assignment, RTP header information, HTTP content, a web host specification, a Universal Resource Identifier field, and a routing protocol. - a data repository in a memory (71, 76) for storing a policy defining a content based classification of VLANs for designated content of packets; - a packet processor for retrieving the policy defining content based classification of VLANs for designated content of packets from the data repository and assigning a VLAN to a packet received from a node based on inspection of a content of the packet and the policy defining content based classification of VLANs for designated content of packets, a VLAN tag being inserted with a VLAN ID into the packet at the packet processor;
A process for producing resin emulsions useful in producing toners, said process comprising: • contacting at least one polyester resin possessing acid groups with an organic solvent to form a resin mixture; • heating the resin mixture to a desired temperature; • adding at least one solvent inversion agent to the mixture; • neutralizing the resin mixture with a neutralizing agent; and • introducing a silicone-free anti-foam agent comprising micrometer-sized hydrophobic fumed silica particles to the resin mixture. • contacting at least one polyester resin possessing acid groups with an organic solvent to form a resin mixture; • heating the resin mixture to a desired temperature; • adding at least one solvent inversion agent to the mixture; • neutralizing the resin mixture with a neutralizing agent; and • introducing a silicone-free anti-foam agent comprising micrometer-sized hydrophobic fumed silica particles to the resin mixture.
A lateral microelectromechanical switch (200,500) comprising: a coplanar waveguide (201,501) comprising an input port (210,510); one or more output ports (220,522); wherein the lateral microelectromechanical switch (200, 500) further comprises a cantilever beam, having a first end in contact to the input port (210,510), and extending from the first end toward a second end that is switchably connectable to said one of the output ports (220, 522); a mechanical spring, connected to the cantilever beam between the first and second ends, the mechanical spring configured to provide a mechanical force to move the cantilever beam; characterized in that the mechanical spring (250,552) is positioned between the cantilever beam and the grounds (201,230) of the coplanar waveguide (201, 501); and a mechanical stopper (525,526) connected to said at least one output ports (220,522) and configured to contact the second end of the cantilever beam, wherein the lateral microelectromechnical switch (200, 500) is configured such that, when the lateral microelectromechanical switch (200, 500) is open, the second end and the mechanical stopper (525,526) are at a distance from one another that is less than a distance between the mechanical spring (551,552) and the ground of the coplanar waveguide (201,501); and wherein the input port (210, 510), the output ports (220,522), and the cantilever beam are placed between the two grounds (201, 230) of the coplanar waveguide (201,501). a coplanar waveguide (201,501) comprising an input port (210,510); one or more output ports (220,522); wherein the lateral microelectromechanical switch (200, 500) further comprises a cantilever beam, having a first end in contact to the input port (210,510), and extending from the first end toward a second end that is switchably connectable to said one of the output ports (220, 522); a mechanical spring, connected to the cantilever beam between the first and second ends, the mechanical spring configured to provide a mechanical force to move the cantilever beam; characterized in that the mechanical spring (250,552) is positioned between the cantilever beam and the grounds (201,230) of the coplanar waveguide (201, 501); and a mechanical stopper (525,526) connected to said at least one output ports (220,522) and configured to contact the second end of the cantilever beam, wherein the lateral microelectromechnical switch (200, 500) is configured such that, when the lateral microelectromechanical switch (200, 500) is open, the second end and the mechanical stopper (525,526) are at a distance from one another that is less than a distance between the mechanical spring (551,552) and the ground of the coplanar waveguide (201,501); and wherein the input port (210, 510), the output ports (220,522), and the cantilever beam are placed between the two grounds (201, 230) of the coplanar waveguide (201,501).
An ultrasonic probe (1, 1') for the non-destructive testing of metallic workpieces, in particular of tubes, for transverse flaws, with a wedge and with a arrangement in linear form of resonator elements, wherein the resonator elements are located on the wedge for coupling to a metallic workpicce, and wherein the wedge is formed as a water-filled wedge-shaped hollow body (7, 7'), characterised in that the wedge angle thereof is at most 24° and the angle of incidence thereof in the metallic workpiece is at most 70°, the wedge-shaped hollow body (7, 7') consists of top plates (7.1, 7.2), a baseplate (7.3) and two side plates (7.4), the top plates (7.1, 7.2) and the side plates (7.4) of the wedge-shaped hollow body (7, 7') consist of a sound-damping material and the baseplate (7.3) which is in contact with the workpiece consists of a material which conducts sound well.
A method for operating a device for wireless transmission of energy in the direction of an electrical consumer by means of inductive coupling, wherein the device has: - a rectifier for generating a DC voltage from a mains voltage, - an inverter fed from the DC voltage, - a coil controlled by means of the inverter, by means of which coil an alternating magnetic field is generatable for transmitting the energy, wherein the method has the steps: - determination of a transmission function (P(f)), wherein the transmission function (P(f)) characterizes an electrical power, transmissible by means of the device in the direction of the electrical consumer, over the frequency (f), characterized in that the determination of the transmission function (P(f)) over the frequency (f) is performed in time ranges in which the amount of the mains voltage is at its maximum. - a rectifier for generating a DC voltage from a mains voltage, - an inverter fed from the DC voltage, - a coil controlled by means of the inverter, by means of which coil an alternating magnetic field is generatable for transmitting the energy, - determination of a transmission function (P(f)), wherein the transmission function (P(f)) characterizes an electrical power, transmissible by means of the device in the direction of the electrical consumer, over the frequency (f), characterized in that the determination of the transmission function (P(f)) over the frequency (f) is performed in time ranges in which the amount of the mains voltage is at its maximum.
A molding method for a plate-shaped workpiece comprising a first surface and a second surface (lb) opposite to the first surface (la), the method comprising: forming a concave portion at the first surface (la) of the plate-shaped workpiece while the plate-shaped workpiece is in a flat state, placing the plate-shaped workpiece on a lower mold over an open concave portion formed at a position of the lower mold corresponding to an upper mold, wherein the upper mold is vertically movable with respect to the fixed lower mold, and pushing the upper mold against the plate-shaped workpiece into the lower mold, characterized in that pushing the upper mold against the plate-shaped workpiece into the lower mold is made so as to locally press the plate-shaped workpiece placed on the lower mold and to cylindrically bend the plate-shaped workpiece and form the first surface (la) into a concave shape, and the method further comprises sequentially repeating the pressing operation by the upper mold while conveying the curved plate-shaped workpiece in a circumferential direction, wherein a width dimension of the lower mold and the upper mold is larger than that of the plate-shaped workpiece. forming a concave portion at the first surface (la) of the plate-shaped workpiece while the plate-shaped workpiece is in a flat state, placing the plate-shaped workpiece on a lower mold over an open concave portion formed at a position of the lower mold corresponding to an upper mold, wherein the upper mold is vertically movable with respect to the fixed lower mold, and pushing the upper mold against the plate-shaped workpiece into the lower mold, characterized in that pushing the upper mold against the plate-shaped workpiece into the lower mold is made so as to locally press the plate-shaped workpiece placed on the lower mold and to cylindrically bend the plate-shaped workpiece and form the first surface (la) into a concave shape, and the method further comprises sequentially repeating the pressing operation by the upper mold while conveying the curved plate-shaped workpiece in a circumferential direction, wherein a width dimension of the lower mold and the upper mold is larger than that of the plate-shaped workpiece.