mhurhangee/ep-ind-claims huggingface dataset:
A reaction chamber for continuous chemical processing of fibrous material, comprising: an elongate cavity having first and second ends at opposite ends of the elongate cavity and configured to contain the fibrous material and any reagents added to it for chemical processing; an input section at the first end of the elongate cavity, configured to feed fibrous material into the first end of the elongate cavity; an output section at the second end of the elongate cavity, configured to output fibrous material from the second end of the elongate cavity; and a transporter configured to drive fibrous material from the first end to the second end of the elongate cavity, wherein the transporter comprises a screw extending along the elongate cavity from the input section to the output section, and wherein the elongate cavity comprises plural regions (61, 62, 63), and at least one of the pitch of the screw or screws and the separation between the central core of the screw or screws and the edge of the screw or screws is different in one region of the elongate cavity from that of another region. an elongate cavity having first and second ends at opposite ends of the elongate cavity and configured to contain the fibrous material and any reagents added to it for chemical processing; an input section at the first end of the elongate cavity, configured to feed fibrous material into the first end of the elongate cavity; an output section at the second end of the elongate cavity, configured to output fibrous material from the second end of the elongate cavity; and a transporter configured to drive fibrous material from the first end to the second end of the elongate cavity, wherein the transporter comprises a screw extending along the elongate cavity from the input section to the output section, and wherein the elongate cavity comprises plural regions (61, 62, 63), and at least one of the pitch of the screw or screws and the separation between the central core of the screw or screws and the edge of the screw or screws is different in one region of the elongate cavity from that of another region.
A driving apparatus in which a position of a rotating shaft of an electric motor in an axis direction is determined, the driving apparatus comprising: a positioning member which determines a position of the rotating shaft in the axis direction, and a terminal holder which holds a first terminal (44, 45, 46) for supplying an electric current to the electric motor, a gear case in which the rotating shaft is housed, wherein a layout region of the positioning member in the axis direction and a layout region of the terminal holder in the axis direction are overlapped with each other, characterized in that the driving apparatus further comprises: a control board having installed thereon electric parts which control the electric motor, and a second terminal (58,59,60) attached to the control board and connected to the first terminal (44,45,46), wherein at least, either one of a mount which protrudes from an inner surface of the gear case and a plate portion of the positioning member constitutes a load receiving mechanism configured to support the terminal holder by receiving a load which is applied to the terminal holder, when the first terminal (44, 45, 46) and the second terminal (58, 59, 60) are connected to each other at the terminal holder.
A polymer blend comprising: at least 90% by weight low density polyethylene (LDPE) polymer; and from 1% to 10% by weight ethylene acrylate copolymer, wherein the ethylene acrylate copolymer is the polymerized reaction product of: at least 75% by wt. ethylene, based on the total wt.% of the monomers present in the ethylene acrylate copolymer; and from 12% to 25% by wt. of alkyl acrylate, based on the total wt.% of the monomers present in the ethylene acrylate copolymer. at least 90% by weight low density polyethylene (LDPE) polymer; and from 1% to 10% by weight ethylene acrylate copolymer, wherein the ethylene acrylate copolymer is the polymerized reaction product of: at least 75% by wt. ethylene, based on the total wt.% of the monomers present in the ethylene acrylate copolymer; and from 12% to 25% by wt. of alkyl acrylate, based on the total wt.% of the monomers present in the ethylene acrylate copolymer. at least 75% by wt. ethylene, based on the total wt.% of the monomers present in the ethylene acrylate copolymer; and from 12% to 25% by wt. of alkyl acrylate, based on the total wt.% of the monomers present in the ethylene acrylate copolymer.
A cochlear implant electrode comprising: an electrode carrier having an electrode array with a groove disposed in a longitudinal direction along the electrode carrier; and a stopper positioned around the electrode carrier, the stopper having a protrusion on an inner surface of the stopper, the protrusion configured to be positioned within the groove so that the stopper is movable with respect to the electrode carrier. an electrode carrier having an electrode array with a groove disposed in a longitudinal direction along the electrode carrier; and a stopper positioned around the electrode carrier, the stopper having a protrusion on an inner surface of the stopper, the protrusion configured to be positioned within the groove so that the stopper is movable with respect to the electrode carrier.
Method for operating at least one wind turbine of a wind farm, comprising the following steps, - determining wind turbine individual offset information (130, 330) based on - reactive power provided by the respective wind turbine and - reactive power provided by at least one further wind turbine of the wind farm, - determining wind turbine individual control information (150, 350) based on - the wind turbine individual offset information (130, 330) and - wind farm specific control information (140, 340), - operating the at least one wind turbine according to the wind turbine individual control information (150, 350), characterised in that: the wind turbine individual offset information (130, 330) is determined - based on the reactive power provided by the wind turbine (111, 311) and - based on a mean value of reactive power (113, 313) provided by - the wind turbine and - the at least one further wind turbine of the wind farm, wherein the wind turbine individual offset information (130, 330) is determined based on a deviation information representing a deviation or difference between the reactive power provided by the wind turbine (111, 311) and the mean value of reactive power (113, 313). - determining wind turbine individual offset information (130, 330) based on - reactive power provided by the respective wind turbine and - reactive power provided by at least one further wind turbine of the wind farm, - reactive power provided by the respective wind turbine and - reactive power provided by at least one further wind turbine of the wind farm, - determining wind turbine individual control information (150, 350) based on - the wind turbine individual offset information (130, 330) and - wind farm specific control information (140, 340), - the wind turbine individual offset information (130, 330) and - wind farm specific control information (140, 340), - operating the at least one wind turbine according to the wind turbine individual control information (150, 350), the wind turbine individual offset information (130, 330) is determined - based on the reactive power provided by the wind turbine (111, 311) and - based on a mean value of reactive power (113, 313) provided by - the wind turbine and - the at least one further wind turbine of the wind farm, - based on the reactive power provided by the wind turbine (111, 311) and - based on a mean value of reactive power (113, 313) provided by - the wind turbine and - the at least one further wind turbine of the wind farm, - the wind turbine and - the at least one further wind turbine of the wind farm, wherein the wind turbine individual offset information (130, 330) is determined based on a deviation information representing a deviation or difference between the reactive power provided by the wind turbine (111, 311) and the mean value of reactive power (113, 313).
A high density polyethylene (HDPE) container or an aluminum foil packet containing a bacterial composition comprising at least six bacterial strains selected from Lactobacillus acidophilus, Lactobacillus plantarum, Lactobacillus casei, Lactobacillus rhamnosus, Bifidobacterium longum, Bifidobacterium lactis, Bifidobacterium bifidum, Bacillus coagulans, Lactobacillus paracasei, Lactobacillus johnsonii, Lactobacillus reuteri, Lactobacillus bulgaricus, Bifidobacterium breve, Lactobacillus brevis, Lactococcus lactis and Streptococcus thermophilus, and microcrystalline cellulose, wherein said bacterial composition releases said at least six bacterial strains within an intestine of a mammal following oral administration to said mammal, and wherein said composition has a water activity less than 0.3. wherein said bacterial composition releases said at least six bacterial strains within an intestine of a mammal following oral administration to said mammal, and wherein said composition has a water activity less than 0.3.
A transmission with housing, wherein a pan for carrying oil and reducing churning losses surrounds a peripheral portion of a toothed part, in particular gear wheel, in particular in the radial and in the axial direction, wherein the pan is composed at least of three parts, i.e. at least of a bottom plate and two side walls, wherein the bottom plate is screw-connected to the two side walls, wherein the pan is fastened to the housing, wherein the pan has a cutout, in particular a channel, in particular on its deepest surface region, in particular therefore on the surface region having the greatest radial distance, wherein upon rotary movement of the gear wheel oil is delivered out of the oil sump of the transmission through the cutout between the pan and gear wheel, in particular to a higher position than the level of the oil sump, wherein the bottom plate and the side walls are stamped and bent parts, wherein the bottom plate has tab portions extending in the radial direction, to which the side walls are screw-connected by means of screw connection, wherein a side wall has a marking on which a drill hole for passing a screw of the screw connection through can be formed, wherein the housing has an upper housing part and a lower housing part, wherein the upper housing part has a frame-like supporting portion on which wall portions are formed, wherein the frame-like supporting portion is formed in one piece, i.e. in one part, with the wall portions as a cast steel part.
Load transport vehicle which is designed to receive and transport an interchangeable container, comprising: - a handling device for the interchangeable container, which is designed to load the interchangeable container onto the load transport vehicle and to remove said interchangeable container from the load transport vehicle; - a hydraulic system comprising at least two independently controllable hydraulic cylinders (26, 28) for actuating the handling device; - a control unit which is designed to control the hydraulic system and/or further components of the load transport vehicle on the basis of at least one predetermined sequence program such that the handling device passes through a predetermined tractrix in order to load or remove the interchangeable container; characterised in that said load transport vehicle further comprises at least one sensor unit (S1, S2, S3) which is designed to supply data to the control unit which data represent at least one current operating parameter of the load transport vehicle or a parameter of the surroundings of the load transport vehicle, the control unit being further designed to adapt the at least one predetermined sequence program on the basis of the data supplied by the at least one sensor unit (S1, S2, S3) while the sequence program is being carried out, the sensor unit (S1, S2) or at least one of the plurality of sensor units (S1, S2) being assigned to the hydraulic system, characterised in that at least the sensor unit (S1, S2) or the at least one of the plurality of sensor units (S1, S2) is assigned to one of the hydraulic cylinders (26, 28) and is designed to detect the current stroke path of said hydraulic cylinder, for example by means of electromechanical means or ultrasound. - a handling device for the interchangeable container, which is designed to load the interchangeable container onto the load transport vehicle and to remove said interchangeable container from the load transport vehicle; - a hydraulic system comprising at least two independently controllable hydraulic cylinders (26, 28) for actuating the handling device; - a control unit which is designed to control the hydraulic system and/or further components of the load transport vehicle on the basis of at least one predetermined sequence program such that the handling device passes through a predetermined tractrix in order to load or remove the interchangeable container;
A precursor for production of a high-temperature superconductor, HTS, in ribbon form, comprising a metallic substrate in ribbon form having a first ribbon side and a second ribbon side, wherein, on the first ribbon side, (a) the substrate has a defined texture as template for crystallographically aligned growth of a buffer layer or an HTS layer and (b) an exposed surface of the substrate is present or one or more layers (20,30) are present that are selected from the group consisting of: buffer precursor layer, pyrolyzed buffer precursor layer, buffer layer, HTS precursor layer, pyrolyzed HTS buffer precursor layer and pyrolyzed and further consolidated HTS buffer precursor layer, and, on the second ribbon side, at least one ceramic barrier layer that protects the substrate against oxidation or a precursor which is converted to such a layer during the HTS crystallization annealing or the pyrolysis is present, wherein, when one or more layers (20, 30) are present on the first ribbon side, the ceramic barrier layer or the precursor thereof has a different chemical composition and/or a different texture than the layer arranged on the first ribbon side and directly adjoining the substrate, wherein the barrier layer is a layer of conductive ceramic material that delays or prevents ingress of oxygen to the second ribbon side, or a precursor which is converted to such a layer during the HTS crystallization annealing or the pyrolysis, and the ceramic material is an electrically conductive metal oxide or an electrically conductive mixture of metal oxides. (a) the substrate has a defined texture as template for crystallographically aligned growth of a buffer layer or an HTS layer and (b) an exposed surface of the substrate is present or one or more layers (20,30) are present that are selected from the group consisting of: buffer precursor layer, pyrolyzed buffer precursor layer, buffer layer, HTS precursor layer, pyrolyzed HTS buffer precursor layer and pyrolyzed and further consolidated HTS buffer precursor layer,
A combined block and individual drive device adapted for moving a plurality of preferably similar movement objects (14a-14h), such as for example pipetting channels (14a-14h), together as a block along a movement path and also with a predetermined relative movement pattern in relation to one another along the movement path, wherein the drive device comprises a block movement drive and a block movement transmission gear coupling a block movement output part of the block movement gear to the movement objects (14a-14h) for transmitting movement, and wherein the drive device furthermore comprises a relative movement drive which can be operated separately from the block movement drive and a relative movement transmission gear coupling a relative movement output part of the relative movement drive to the movement objects (14a-14h) for transmitting movement, wherein the block movement transmission gear comprises a drive spindle parallel to the movement path and at each movement object (14a-14h) a spindle nut (58a-58h) through which the drive spindle passes and which can be moved together with the movement object (14a-14h) along a drive spindle longitudinal axis which is parallel to the movement path, wherein the drive spindle can be set into rotation about the drive spindle longitudinal axis by operating the block movement drive, wherein at least at part of the movement objects (14a-14h), preferably at all movement objects (14b-14h) except for one, particularly preferred at all movement objects (14a-14h), the at least one spindle nut (58b-58h) of the movement object (14b-14h) is carried rotatably about said drive spindle longitudinal axis in relation to the latter, wherein said relative movement transmission gear comprises a drive shaft with a drive shaft longitudinal axis parallel to the drive spindle longitudinal axis and at each movement object (14b-14h) with a spindle nut (58b-58h) rotatable about said drive spindle longitudinal axis in relation to the latter a sliding block (60b-60h) which can be moved together with the movement object (14b-14h) in relation to the drive shaft along the drive shaft longitudinal axis and which can be rotated together with the drive shaft, wherein the sliding block (60b-60h) and the spindle nut (58b-58h) of one and the same movement object (14b-14h) have such a torque transmission connection that the spindle nut (58b-58h) can be driven for rotation about the drive spindle longitudinal axis by rotating the drive shaft about the drive shaft longitudinal axis with a movement transmission by the sliding block (60b-60h) and is supported at the drive shaft when the drive shaft is rotated in the circumferential direction about the drive spindle longitudinal axis with a torque transmission by the sliding block (60b-60h).
An apparatus for separating particles of a plate-shaped HBI, comprising: a motor; a driving rotor that is coupled to and rotated with a driving shaft of the motor and has first projections around the outer surface thereof; an idle rotor that is disposed in parallel with the driving rotor, freely rotates, and has second projections around the outer side; and a control unit that is configured to adjust a gap between the driving rotor and the idle rotor by moving the idle rotor with respect to the driving rotor in accordance with the amount of a plate-shaped HBI sent between the idle rotor and the driving rotor, wherein the first and second protrusions are adapted for applying shock to the plate-shaped HBI so that the plate-shaped HBI is divided into particles between the driving rotor and the idle rotor. a motor; a driving rotor that is coupled to and rotated with a driving shaft of the motor and has first projections around the outer surface thereof; an idle rotor that is disposed in parallel with the driving rotor, freely rotates, and has second projections around the outer side; and a control unit that is configured to adjust a gap between the driving rotor and the idle rotor by moving the idle rotor with respect to the driving rotor in accordance with the amount of a plate-shaped HBI sent between the idle rotor and the driving rotor, wherein the first and second protrusions are adapted for applying shock to the plate-shaped HBI so that the plate-shaped HBI is divided into particles between the driving rotor and the idle rotor.
Method for adjusting a hearing system to the preferences of a user of said hearing system, comprising the steps of a) playing an audio sequence to said user, wherein said audio sequence comprises a first sound object (51;...;55) representative of a first real-life sound source (Q1;...;Q4) and a second sound object (55;...;51) representative of a second real-life sound source (Q4;...;Q1); d) providing said user synchronously with step a) with a visualization of a scene to which said audio sequence belongs; x) providing a user input, wherein said user input comprises an indication of a sound source (Q1;...;Q4) occuring in said visualization, or said user input is indicative of at least one of - one of the sound objects (51,...,55) comprised in said audio sequence; and - an instant in or a portion of said audio sequence; g) receiving said user input in a fitting arrangement; e) automatically selecting at least one audio processing parameter of said hearing system in dependence of said user input; wherein step e) is carried out by said fitting arrangement; f) offering said selected at least one audio processing parameter for adjustment; b') receiving, in said fitting arrangement, an input indicative of a requested parameter adjustment referring to one or more of said selected at least one audio processing parameters; and c) adjusting at least one audio processing parameter of said hearing system in dependence of said input indicative of said requested parameter adjustment. a) playing an audio sequence to said user, wherein said audio sequence comprises a first sound object (51;...;55) representative of a first real-life sound source (Q1;...;Q4) and a second sound object (55;...;51) representative of a second real-life sound source (Q4;...;Q1); d) providing said user synchronously with step a) with a visualization of a scene to which said audio sequence belongs; x) providing a user input, wherein said user input comprises an indication of a sound source (Q1;...;Q4) occuring in said visualization, or said user input is indicative of at least one of - one of the sound objects (51,...,55) comprised in said audio sequence; and - an instant in or a portion of said audio sequence; - one of the sound objects (51,...,55) comprised in said audio sequence; and - an instant in or a portion of said audio sequence; g) receiving said user input in a fitting arrangement; e) automatically selecting at least one audio processing parameter of said hearing system in dependence of said user input; f) offering said selected at least one audio processing parameter for adjustment; b') receiving, in said fitting arrangement, an input indicative of a requested parameter adjustment referring to one or more of said selected at least one audio processing parameters; and c) adjusting at least one audio processing parameter of said hearing system in dependence of said input indicative of said requested parameter adjustment.
A portable container for one or more articles each tagged with a respective Radio Frequency Identification (RFID) transponder, the container having at least one opening into the container and a detector device (21,22) for detecting removal and/or placement of RFID-tagged articles in the container, wherein the container comprises: a power supply for supplying electrical power to the detector device (21,22), an activation means in communication with the detector device (21,22), wherein the activation means is operable to cause the detector device (21,22) to detect a reference list of RFID-tagged articles located in the container; a verification means in communication with the detector device (21,22), wherein the verification means is operable by movement of the container to cause the detector device (21,22) to detect RFID-tagged articles located in the container and to signal deviation from the reference list; and a signal means (38,42) in communication with the detector device (21,22) for transmitting signals from the detector device (21,22) to a user. a power supply for supplying electrical power to the detector device (21,22), an activation means in communication with the detector device (21,22), wherein the activation means is operable to cause the detector device (21,22) to detect a reference list of RFID-tagged articles located in the container; a verification means in communication with the detector device (21,22), wherein the verification means is operable by movement of the container to cause the detector device (21,22) to detect RFID-tagged articles located in the container and to signal deviation from the reference list; and a signal means (38,42) in communication with the detector device (21,22) for transmitting signals from the detector device (21,22) to a user.