mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method of an optical waveguide-type wavelength dispersion compensation device (1, 20) that has an optical waveguide as a reflection-type wavelength dispersion compensation device in which an equivalent refractive index of a core changes unevenly along the light propagation direction by changing the physical dimensions of the core that is embedded in a cladding, comprising: designing the core by: (a) setting a first desired reflection spectrum, ignoring transmission losses of the optical waveguide, and designing an optical waveguide that is capable of compensating a wavelength dispersion of an optical fiber to be compensated; (b) deriving a wavelength dependency characteristic of a transmission loss amount of the optical waveguide from an effective length of the optical waveguide designed in process (a); and (c) adding a reverse dependency characteristic of the wavelength dependency characteristic to the first reflection spectrum to correct it to a second reflection spectrum, and redesigning the equivalent refractive index distribution of the optical waveguide designed in the process (a) by using the second reflection spectrum, and forming the optical waveguide including the core designed in the processes (a) to (c). designing the core by: (a) setting a first desired reflection spectrum, ignoring transmission losses of the optical waveguide, and designing an optical waveguide that is capable of compensating a wavelength dispersion of an optical fiber to be compensated; (b) deriving a wavelength dependency characteristic of a transmission loss amount of the optical waveguide from an effective length of the optical waveguide designed in process (a); and (c) adding a reverse dependency characteristic of the wavelength dependency characteristic to the first reflection spectrum to correct it to a second reflection spectrum, and redesigning the equivalent refractive index distribution of the optical waveguide designed in the process (a) by using the second reflection spectrum, and (a) setting a first desired reflection spectrum, ignoring transmission losses of the optical waveguide, and designing an optical waveguide that is capable of compensating a wavelength dispersion of an optical fiber to be compensated; (b) deriving a wavelength dependency characteristic of a transmission loss amount of the optical waveguide from an effective length of the optical waveguide designed in process (a); and (c) adding a reverse dependency characteristic of the wavelength dependency characteristic to the first reflection spectrum to correct it to a second reflection spectrum, and redesigning the equivalent refractive index distribution of the optical waveguide designed in the process (a) by using the second reflection spectrum, and forming the optical waveguide including the core designed in the processes (a) to (c).
Eccentric screw pump, comprising; - a rotor which extends along a rotor longitudinal axis from a drive end to a free end, - a stator housing with an interior space which extends along the longitudinal axis from a stator inlet opening to a stator outlet opening and is designed to receive the rotor, - a drive motor with a drive shaft which is coupled with the rotor to transmit a torque, - a first cardan joint which is used in the transmission of the torque between the drive shaft and the rotor, - a stator outlet flange which is arranged behind the rotor in the direction of flow, characterised in that the first cardan joint is connected to a wobble shaft which is connected to a second cardan joint which is connected to a hollow shaft coupled to the drive motor by means of a second shaft-hub connection, and that the second shaft-hub connection can be connected and released by means of a second tensioning element, wherein - the second tensioning element extends through the hollow shaft, is connected to the second shaft-hub connection on the side of the second cardan joint, and can be actuated with a tool on the side of the hollow shaft opposite to the second cardan joint, or - the second tensioning element can be actuated by means of a tool extending through the hollow shaft, and that, from the side of the hollow shaft opposite to the second cardan joint, by means of the tool placed on the second tensioning element, the second shaft-hub connection can be connected and released. - a rotor which extends along a rotor longitudinal axis from a drive end to a free end, - a stator housing with an interior space which extends along the longitudinal axis from a stator inlet opening to a stator outlet opening and is designed to receive the rotor, - a drive motor with a drive shaft which is coupled with the rotor to transmit a torque, - a first cardan joint which is used in the transmission of the torque between the drive shaft and the rotor, - a stator outlet flange which is arranged behind the rotor in the direction of flow, characterised in that the first cardan joint is connected to a wobble shaft which is connected to a second cardan joint which is connected to a hollow shaft coupled to the drive motor by means of a second shaft-hub connection, and - the second tensioning element extends through the hollow shaft, is connected to the second shaft-hub connection on the side of the second cardan joint, and can be actuated with a tool on the side of the hollow shaft opposite to the second cardan joint, or - the second tensioning element can be actuated by means of a tool extending through the hollow shaft, and
A method of installing an In-Line Structure to a fluid-filled pipeline extending from a reel, over an aligner, and through a lay-tower during offshore reeling, the pipeline having an oblique part from the reel to the aligner, and a vertical part from the aligner through the lay-tower, comprising at least the steps of: (a) draining fluid in the fluid-filled pipeline from the vertical part of the pipeline to create a drained portion of the vertical part of the pipeline up to and around the aligner; (b) cutting the pipeline at or near the draining of step (a) to create upper and lower open ends (36, 38) of the pipeline; (c) installing the In-Line Structure to at least the upper open end of the pipeline; (d) locating a vent hose in the pipeline through a vent port in the In-Line Structure; (e) adding fluid into the drained portion of the pipeline and venting air from the drained portion of the pipeline through the vent hose to wholly or substantially fill the drained portion of the pipeline with the fluid. (a) draining fluid in the fluid-filled pipeline from the vertical part of the pipeline to create a drained portion of the vertical part of the pipeline up to and around the aligner; (b) cutting the pipeline at or near the draining of step (a) to create upper and lower open ends (36, 38) of the pipeline; (c) installing the In-Line Structure to at least the upper open end of the pipeline; (d) locating a vent hose in the pipeline through a vent port in the In-Line Structure; (e) adding fluid into the drained portion of the pipeline and venting air from the drained portion of the pipeline through the vent hose to wholly or substantially fill the drained portion of the pipeline with the fluid.
A device for non-invasive monitoring of intracranial pressure of a patient, wherein the device comprises a measuring mat comprising at least one sensor for measuring mechanical manifestations of the head when the mat is placed under the patient's head; the device further comprising a reference device whose output signal comprises an ECG signal; and a processor unit configured for determining the time delay between a first signal corresponding to the R-wave in the ECG signal and a second signal corresponding to the mechanical manifestations of the head related to the reflection of the pulse wave in the bloodstream in the patient's head and for converting said time delay into the intracranial pressure of the patient.
Use of biopolymers for removing phosphorus from wastewater, wherein the biopolymers are isolated using the following method: i) disrupting the bacterial cell walls of bacteria present in sewage sludge by at least 75% to release the intracellular contents of the bacterial cells; and ii) separating the biopolymers from any contaminants present. i) disrupting the bacterial cell walls of bacteria present in sewage sludge by at least 75% to release the intracellular contents of the bacterial cells; and ii) separating the biopolymers from any contaminants present.
An image forming apparatus, comprising: a developing unit (130C, 130M, 130Y, 130K) to form an image using a developing agent on one side of a printing medium transported along a simplex printing path; a fixing unit to fix the developing agent on the printing medium; a discharging roller to discharge the printing medium that passes the fixing unit; a duplex guide to guide the printing medium from the discharging roller to the developing unit (130C, 130M, 130Y, 130K) for an other side of the printing medium to be printed; and a first driving source to drive the developing unit (130C, 130M, 130Y, 130K), the fixing unit and the discharging roller, characterized in that the apparatus is configured to stop operating the first driving source while a sheet of printing medium is conveyed through the duplex guide. a developing unit (130C, 130M, 130Y, 130K) to form an image using a developing agent on one side of a printing medium transported along a simplex printing path; a fixing unit to fix the developing agent on the printing medium; a discharging roller to discharge the printing medium that passes the fixing unit; a duplex guide to guide the printing medium from the discharging roller to the developing unit (130C, 130M, 130Y, 130K) for an other side of the printing medium to be printed; and a first driving source to drive the developing unit (130C, 130M, 130Y, 130K), the fixing unit and the discharging roller, characterized in that the apparatus is configured to stop operating the first driving source while a sheet of printing medium is conveyed through the duplex guide.
A method of producing a three-dimensional computer model of a patient-individual abutment for a dental implant specific for a patient by means of a computer, wherein the abutment has at least a base, a connecting structure for connecting the abutment to a pin-shaped dental implant, a coronally looking platform surface of a platform of the abutment for supporting a prosthetic fitting and a screw passage for fixing the abutment to a pin-shaped dental implant, comprising at least the following steps: - providing a three-dimensional representation of a jaw of the patient readable by the computer, at least in that region of the jaw where the abutment is to be placed, - selecting a definition of a preparation limit in dependence on a gum line individual for the patient where the abutment is to be placed, by an operator of the computer or by an algorithm, - defining a three-dimensional geometry of the abutment above the preparation limit by an operator of the computer or by an algorithm, - defining an emergence profile of the abutment by an operator of the computer or by an algorithm, and - providing the three-dimensional computer model by the computer, characterised in that provided below the preparation limit for the three-dimensional geometry of the platform is a plate-like configuration of the coronally looking platform surface and a material thickness (d 1) of the platform of the abutment is selected by an operator of the computer starting from the defined emergence profile within a predetermined range stored in an electronic memory. - providing a three-dimensional representation of a jaw of the patient readable by the computer, at least in that region of the jaw where the abutment is to be placed, - selecting a definition of a preparation limit in dependence on a gum line individual for the patient where the abutment is to be placed, by an operator of the computer or by an algorithm, - defining a three-dimensional geometry of the abutment above the preparation limit by an operator of the computer or by an algorithm, - defining an emergence profile of the abutment by an operator of the computer or by an algorithm, and - providing the three-dimensional computer model by the computer,
A method for production of a seed-specific and/or seed-preferential plant promoter comprising functionally linking to a promoter one or more nucleic acid expression enhancing nucleic acid (NEENA) molecule heterologous to said promoter comprising i) the nucleic acid molecule having a sequence as defined in SEQ ID NO: 5, or ii) a nucleic acid molecule having a sequence with an identity of at least 80% to SEQ ID NO: 5, or iii) a fragment of at least 100 consecutive bases of a nucleic acid molecule of i) or ii) which has expression enhancing activity as the corresponding nucleic acid molecule having the sequence of SEQ ID NO: 5, or iv) a nucleic acid molecule which is the complement or reverse complement of any of the previously mentioned nucleic acid molecules under i) or ii). i) the nucleic acid molecule having a sequence as defined in SEQ ID NO: 5, or ii) a nucleic acid molecule having a sequence with an identity of at least 80% to SEQ ID NO: 5, or iii) a fragment of at least 100 consecutive bases of a nucleic acid molecule of i) or ii) which has expression enhancing activity as the corresponding nucleic acid molecule having the sequence of SEQ ID NO: 5, or iv) a nucleic acid molecule which is the complement or reverse complement of any of the previously mentioned nucleic acid molecules under i) or ii).
A centrifugal separator bowl comprising a rotor casing enclosing a separation space in which a stack of frustoconical separation discs is arranged to rotate around a vertical axis of rotation, wherein the separation discs are arranged with the imaginary apex pointing to the axially lower end of the rotor casing; a feed inlet at the axially lower end for receiving the fluid mixture to be separated; a distributor for distributing the fluid mixture from the inlet to the separation space, said distributor being arranged for guiding the fluid mixture to be separated continuously from an axially lower position at the inlet to an axially upper position in the separation space; a light phase outlet for discharge of a separated phase of a first density and a heavy phase outlet for discharge of a separated phase of a second density higher than said first density, said heavy phase outlet being arranged at the axially upper end of the rotor casing; at least one outlet conduit for transporting separated phase of the second density from the separation space, said conduit extending from a radially outer position of said separation space to said heavy phase outlet; said conduit having a conduit inlet arranged at the radially outer position and a conduit outlet at a radially inner position.
A chair comprising a three-dimensional frame comprising a back rest and a seat with a lockable height pivotally attached to the frame, the chair characterized in that it is designed to support the vertebral column and: - the back rest is installed at an angle of less than 90° between its working surface plane and the seat working surface plane; the distance between the top edge of the back rest working surface and the seat working surface plane is less than 250 mm, - the seat is installed with a possibility of smooth rotation about a horizontal axle secured in the frame, providing a change in the seat working surface plane position from its horizontal position to a position with a seat tilted in front downward to an tilt angle of up to 16° in the presence of a load on front part of the seat more than a load on back part of the seat and to a position with a seat tilted behind downward to an tilt angle of up to 4° in the presence of a load on the back part of the seat more than a load on front part of the seat, - the chair is provided with a arresting device to limit the seat movement, and - a smooth displacement compensator of the seat and a reset mechanism resetting the seat to the horizontal position being installed between the chair frame and the seat. - the back rest is installed at an angle of less than 90° between its working surface plane and the seat working surface plane; the distance between the top edge of the back rest working surface and the seat working surface plane is less than 250 mm, - the seat is installed with a possibility of smooth rotation about a horizontal axle secured in the frame, providing a change in the seat working surface plane position from its horizontal position to a position with a seat tilted in front downward to an tilt angle of up to 16° in the presence of a load on front part of the seat more than a load on back part of the seat and to a position with a seat tilted behind downward to an tilt angle of up to 4° in the presence of a load on the back part of the seat more than a load on front part of the seat, - the chair is provided with a arresting device to limit the seat movement, and - a smooth displacement compensator of the seat and a reset mechanism resetting the seat to the horizontal position being installed between the chair frame and the seat.
A hybrid pixel detector structure comprising - a plurality of detector entities (201, 301a, 301b, 401a, 401b), each detector entity comprising a read-out element and an overlapping edgeless radiation sensitive detector volume, these two being electrically coupled utilizing a number of conductive elements (310, 410), optionally solder micro-bumps, in between, - at least one substrate, such as a circuit board or a plurality of those, for accommodating said plurality of detector entities, wherein the edgeless detector volume of at least one detector entity (301b, 401b) of said plurality comprises an overhang portion (202a, 402a) outside the overlap between the detector volume and the read-out element, and the read-out element of at least one other detector entity (301a, 401a) of said plurality comprises an extension portion (204b, 404b), also outside the overlap, with a number of electrical coupling elements (308, 408, 508) to electrically couple to the associated substrate, such as conductors and/or electronics thereof, characterized in that said at least one detector entity and said at least one other detector entity are, as neighboring detector entities of the detector structure, being positioned to lie adjacent such that said overhang and extension portions thereof overlap and the edgeless detector volumes meet each other in the same plane having no angle or step between them, and finally wherein the electrical coupling elements, such as a number of printed wire connections, at most extend over the read-out element an amount in the order of magnitude of the conductive elements' height. - a plurality of detector entities (201, 301a, 301b, 401a, 401b), each detector entity comprising a read-out element and an overlapping edgeless radiation sensitive detector volume, these two being electrically coupled utilizing a number of conductive elements (310, 410), optionally solder micro-bumps, in between, - at least one substrate, such as a circuit board or a plurality of those, for accommodating said plurality of detector entities,
A method for access control for a terminal device in a dual connectivity to a primary cell and a primary secondary cell, characterized by the method comprising: responsive to that the terminal device satisfies a condition of radio resource control connection reestablishment when the terminal device performs or is to perform an addition or change of a target primary secondary cell to access the target primary secondary cell, wherein the condition of radio resource control connection reestablishment comprises: a radio link failure occurs to a radio link between the terminal device and a source primary cell, terminating, by the terminal device, an ongoing access to the target primary secondary cell; initiating, by the terminal device, a radio resource control connection reestablishment procedure to establish a radio resource control connection with a target primary cell. responsive to that the terminal device satisfies a condition of radio resource control connection reestablishment when the terminal device performs or is to perform an addition or change of a target primary secondary cell to access the target primary secondary cell, wherein the condition of radio resource control connection reestablishment comprises: a radio link failure occurs to a radio link between the terminal device and a source primary cell, terminating, by the terminal device, an ongoing access to the target primary secondary cell; initiating, by the terminal device, a radio resource control connection reestablishment procedure to establish a radio resource control connection with a target primary cell.
A production method for producing transition metal composite hydroxide particles by a crystallization reaction to be a precursor for a cathode active material for a non-aqueous electrolyte rechargeable battery, comprising: a nucleation process for performing nucleation by controlling an aqueous solution for nucleation that includes a metal compound that includes at least a transition metal and an ammonium ion donor so that the pH value at a standard liquid temperature of 25°C becomes 12.0 to 14.0; and a particle growth process for causing nuclei to grow by controlling an aqueous solution for particle growth that includes the nuclei that were obtained in the nucleation process so that the pH value is less than in the nucleation process and is 10.5 to 12.0; characterized in that the reaction atmosphere in the nucleation process and at the beginning of the particle growth process is a non-oxidizing atmosphere in which an oxygen concentration is 5% by volume or less; and in the particle growth process, atmosphere control by which the reaction atmosphere is switched from the non-oxidizing atmosphere to an oxidizing atmosphere in which the oxygen concentration is greater than 5% by volume at timing from the start of the particle growth process within a range of 5% to 35% of the overall particle growth process time, and is then switched from the oxidizing atmosphere to the non-oxidizing atmosphere so that the crystallization time in the oxidizing atmosphere in the particle growth process is 3% to 20% of the overall particle growth process time is performed one time. a nucleation process for performing nucleation by controlling an aqueous solution for nucleation that includes a metal compound that includes at least a transition metal and an ammonium ion donor so that the pH value at a standard liquid temperature of 25°C becomes 12.0 to 14.0; and a particle growth process for causing nuclei to grow by controlling an aqueous solution for particle growth that includes the nuclei that were obtained in the nucleation process so that the pH value is less than in the nucleation process and is 10.5 to 12.0; characterized in that the reaction atmosphere in the nucleation process and at the beginning of the particle growth process is a non-oxidizing atmosphere in which an oxygen concentration is 5% by volume or less; and in the particle growth process, atmosphere control by which the reaction atmosphere is switched from the non-oxidizing atmosphere to an oxidizing atmosphere in which the oxygen concentration is greater than 5% by volume at timing from the start of the particle growth process within a range of 5% to 35% of the overall particle growth process time, and is then switched from the oxidizing atmosphere to the non-oxidizing atmosphere so that the crystallization time in the oxidizing atmosphere in the particle growth process is 3% to 20% of the overall particle growth process time is performed one time.