mhurhangee/ep-ind-claims huggingface dataset:
Optical system for imaging an object, having - at least one first objective (14A, 14B), - at least one first image stabilizing unit (16A, 16B), and having - at least one first image plane (24A, 24B), wherein - as seen from the first objective (14A, 14B) in the direction of the first image plane (24A, 24B), the first objective (14A, 14B) is arranged first along a first optical axis (10, 11), followed by the first image stabilizing unit (16A, 16B) and then the first image plane (24A, 24B), - the first image stabilizing unit (16A, 16B) comprises at least one first optical unit (19A, 19B) and at least one second optical unit (20A, 20B), and wherein - the second optical unit (20A, 20B) of the first image stabilizing unit (16A, 16B) is an optical roof prism unit, characterized in that - the first optical unit (19A, 19B) of the first image stabilizing unit (16A, 16B) is embodied so as to be rotatable about a first axis of rotation (22A, 22B), - the second optical unit (20A, 20B) of the first image stabilizing unit (16A, 16B) is embodied so as to be rotatable about a second axis of rotation (23A, 23B), - the first axis of rotation (22A, 22B) and the second axis of rotation (23A, 23B) are different axes, - the second optical unit (20A, 20B) of the first image stabilizing unit (16A, 16B) is embodied as a first roof prism, and in that - the first image stabilizing unit (16A, 16B) is embodied as an Abbe-König prism system. - at least one first objective (14A, 14B), - at least one first image stabilizing unit (16A, 16B), and having - at least one first image plane (24A, 24B), - as seen from the first objective (14A, 14B) in the direction of the first image plane (24A, 24B), the first objective (14A, 14B) is arranged first along a first optical axis (10, 11), followed by the first image stabilizing unit (16A, 16B) and then the first image plane (24A, 24B), - the first image stabilizing unit (16A, 16B) comprises at least one first optical unit (19A, 19B) and at least one second optical unit (20A, 20B), and wherein - the second optical unit (20A, 20B) of the first image stabilizing unit (16A, 16B) is an optical roof prism unit, - the first optical unit (19A, 19B) of the first image stabilizing unit (16A, 16B) is embodied so as to be rotatable about a first axis of rotation (22A, 22B), - the second optical unit (20A, 20B) of the first image stabilizing unit (16A, 16B) is embodied so as to be rotatable about a second axis of rotation (23A, 23B), - the first axis of rotation (22A, 22B) and the second axis of rotation (23A, 23B) are different axes, - the second optical unit (20A, 20B) of the first image stabilizing unit (16A, 16B) is embodied as a first roof prism, and in that - the first image stabilizing unit (16A, 16B) is embodied as an Abbe-König prism system.
A release apparatus for a load on a device, in particular on an underwater device, having: - a hook device, with which a hook is mounted on a hook-holding device such that it can rotate about a rotational axis and can be displaced between a closed and a released position by rotation about the rotational axis with the aid of a hook actuation mechanism, - a load rest, which is formed on the hook and in which a holding element of the load rests when in the non-released state, and - a restricted guidance device, which is configured to guide the load in an ejection direction when released, wherein, when the holding element of the load rests on the load rest, the hook in the closed position is torque-free with respect to a torque exerted by the load on the hook in relation to the rotation about the rotational axis, c h a r a c t e r i s e d by a release support device, which is configured to provide a supporting ejection force with a force component which acts parallel to the ejection direction. - a hook device, with which a hook is mounted on a hook-holding device such that it can rotate about a rotational axis and can be displaced between a closed and a released position by rotation about the rotational axis with the aid of a hook actuation mechanism, - a load rest, which is formed on the hook and in which a holding element of the load rests when in the non-released state, and - a restricted guidance device, which is configured to guide the load in an ejection direction when released,
A cable consolidation box for securing a plurality of network cables having two or more security classifications and for providing access to a plurality of securable network connections based at least in part on security clearance to access a particular security classification network, the cable consolidation box comprising: a housing; one or more primary connection chambers configured to physically secure primary network cables (121a, 121b) from a first-security classification network and a second security classification network; a first outbound connection chamber disposed within the housing and configured to secure secondary network cables for connecting to the first security classification network; a second outbound connection chamber disposed within the housing and configured to secure secondary network cables for connecting to the second security classification network; a barrier separating the first and second outbound connection chambers (130a, 130b), the barrier preventing access to one of the first and second outbound connection chamber (130a, 130b) from the other of the first and second outbound chambers (130a, 130b); a first door coupled to the housing and sized and configured to selectively provide access to the first outbound connection chamber; a second door coupled to the housing and sized and configured to selectively provide access to the second outbound connection chamber; a third door coupled to the housing and sized and configured to selectively provide access to the one or more primary connection chambers; and one or more locks configured to selectively secure one or more of the first, the second, and the third doors (150a, 150b, 150c) to the housing. a housing; one or more primary connection chambers configured to physically secure primary network cables (121a, 121b) from a first-security classification network and a second security classification network; a first outbound connection chamber disposed within the housing and configured to secure secondary network cables for connecting to the first security classification network; a second outbound connection chamber disposed within the housing and configured to secure secondary network cables for connecting to the second security classification network; a barrier separating the first and second outbound connection chambers (130a, 130b), the barrier preventing access to one of the first and second outbound connection chamber (130a, 130b) from the other of the first and second outbound chambers (130a, 130b); a first door coupled to the housing and sized and configured to selectively provide access to the first outbound connection chamber; a second door coupled to the housing and sized and configured to selectively provide access to the second outbound connection chamber; a third door coupled to the housing and sized and configured to selectively provide access to the one or more primary connection chambers; and one or more locks configured to selectively secure one or more of the first, the second, and the third doors (150a, 150b, 150c) to the housing.
A method for forming a rotor, the rotor comprising a rotational center axis and four quadrant sectors that each correspond to a pole of the rotor, the method comprising: arranging a plurality of stacks (44; 80) of laminations in a stack (44; 80) as to form at least part of the rotor, the plurality of laminations having apertures that are aligned in the stack to form passages extending axially through the stack (44; 80), and passageways radially inward adjacent to the apertures; filling magnet material into the passages, and filling polymer based fixation material through the passages to lock the plurality of laminations together and overmold the magnet material, and filling, solely, the polymer based fixation material through the passageways; wherein filling the passages with the fixation material is accomplished by use of a mold that includes forms, wherein as the fixation material is filled in the passages, it flows around the forms while locking the laminations together and overmolds the magnet material with the fixation material, forming a sprue (72; 82) projecting from an axial face of the stack (44; 80); the method comprises adjusting a weight of the sprue (72; 82) to rotationally balance the rotor about the rotor center axis, wherein the sprue (72; 82) is formed in exactly four portions, and each portion of the sprue (72; 82) is formed in each of the four quadrant sectors of the stack (44; 80) that correspond to a pole of the rotor. arranging a plurality of stacks (44; 80) of laminations in a stack (44; 80) as to form at least part of the rotor, the plurality of laminations having apertures that are aligned in the stack to form passages extending axially through the stack (44; 80), and passageways radially inward adjacent to the apertures; filling magnet material into the passages, and filling polymer based fixation material through the passages to lock the plurality of laminations together and overmold the magnet material, and filling, solely, the polymer based fixation material through the passageways; wherein filling the passages with the fixation material is accomplished by use of a mold that includes forms, wherein as the fixation material is filled in the passages, it flows around the forms while locking the laminations together and overmolds the magnet material with the fixation material, forming a sprue (72; 82) projecting from an axial face of the stack (44; 80); the method comprises adjusting a weight of the sprue (72; 82) to rotationally balance the rotor about the rotor center axis, wherein the sprue (72; 82) is formed in exactly four portions, and each portion of the sprue (72; 82) is formed in each of the four quadrant sectors of the stack (44; 80) that correspond to a pole of the rotor.
A container for receiving radioactive waste materials, in particular for receiving spent fuel elements, with a container casing, with a container base connected to the container casing and with at least one container cover, wherein the container cover comprises at least one locking recess arranged in the edge region of the upper side of the cover, wherein at least one locking element is arranged or can be arranged in the locking recess, characterised in that the locking element comprises at least one formfitting protrusion which is orientated in the direction of the container casing and which engages in a complementary formfitting recess of the container casing in the locked state of the container cover, wherein the formfitting recess is arranged in the cover-side edge region of the container casing and wherein the at least one formfitting recess is constituted as a formfitting opening engaging through the container casing.
Heat exchanger for an annular air vein of an axial turbomachine, comprising a heat exchange zone with oil passages and heat exchange surfaces forming a heat exchange passage for the air, said heat exchange zone being radially delimited by an upper wall (12, 9') and by a lower wall (9, 8'), the oil passages extending radially and axially between said upper wall (12, 9') and lower wall (9, 8'), said heat exchange zone having a profile facing the air flow and included in a plane perpendicular to said air flow, said profile of the heat exchange zone being in an arc shape so as to be able to be disposed in the annular air vein, characterized in that the heat exchanger further comprises a wall (8, 12') with an arc-shaped profile parallel to, and radially spaced from the heat exchange zone so as to form, between said wall (8, 12') and said heat exchange zone, a bypass passage for the air, parallel to the heat exchange passage.
A material handling vehicle simulation system comprising: a material handling vehicle including: a plurality of controls operable to manipulate the material handling vehicle to perform a desired operation; a simulation port; and a vehicle controller in communication with the simulation port and configured to selectively transition between a standard mode where the vehicle controller is configured to instruct the material handling vehicle to perform standard operating tasks and a simulation mode, wherein the vehicle controller is configured to detect a triggering event to indicate when the vehicle controller is to transition between the standard mode and the simulation mode; and a simulation kit including: a simulation display; and a simulation controller in communication with the plurality of controls and the simulation display, wherein when the vehicle controller is in the simulation mode, the simulation controller is configured to simulate operation of the material handling vehicle on the simulation display in response to manipulation of at least one of the plurality of controls, and wherein the triggering event comprises connecting the simulation controller to the simulation port. a plurality of controls operable to manipulate the material handling vehicle to perform a desired operation; a simulation port; and a vehicle controller in communication with the simulation port and configured to selectively transition between a standard mode where the vehicle controller is configured to instruct the material handling vehicle to perform standard operating tasks and a simulation mode, wherein the vehicle controller is configured to detect a triggering event to indicate when the vehicle controller is to transition between the standard mode and the simulation mode; and a simulation kit including: a simulation display; and a simulation controller in communication with the plurality of controls and the simulation display, wherein when the vehicle controller is in the simulation mode, the simulation controller is configured to simulate operation of the material handling vehicle on the simulation display in response to manipulation of at least one of the plurality of controls, and wherein the triggering event comprises connecting the simulation controller to the simulation port. a simulation display; and a simulation controller in communication with the plurality of controls and the simulation display, wherein when the vehicle controller is in the simulation mode, the simulation controller is configured to simulate operation of the material handling vehicle on the simulation display in response to manipulation of at least one of the plurality of controls, and wherein the triggering event comprises connecting the simulation controller to the simulation port.
A turbofan engine comprising: a first spool including a first turbine; a second spool including a second turbine; a superposition gearbox disposed about an axis and including a sun gear, a plurality of intermediate gears engaged to the sun gear and supported in a carrier and a ring gear circumscribing the intermediate gears; a drive means engaged to drive the sun gear; characterized by: an integrated motor generator disposed about the axis and including an inner armature and an outer armature rotatable relative to a fixed stator disposed radially between the inner armature and the outer armature, wherein one of the inner armature and the outer armature is mechanically coupled to the first spool and the other of the inner armature and the outer armature is coupled to a portion of the superposition gearbox and a first load on the first spool and a second load on the second spool are adjustable by modification of stator fields of the inner armature and the outer armature. a first spool including a first turbine; a second spool including a second turbine; a superposition gearbox disposed about an axis and including a sun gear, a plurality of intermediate gears engaged to the sun gear and supported in a carrier and a ring gear circumscribing the intermediate gears; a drive means engaged to drive the sun gear;
A medical or dental instrument part, comprising: a coupling device for connecting the instrument part to a control, regulating or supply unit, and a memory device that can be operated with electrical power for storing identification data and/or operating and/or care data of the instrument part, characterized by not more than two, exactly two joint electrical lines (6A, 6B) which are provided for supplying electrical power to a lighting device that is provided on the instrument part or can be connected to the instrument part for operating the lighting device and for supplying electrical power to the memory device for operating the memory device and for transmitting identification data and/or operating data and/or care data between the memory device and the control, regulating or supply unit connectable to the instrument part.
A Y-shaped shielded support for industrial plants, comprising a supporting block, which is configured to be anchored to an external support, a bearing and a sealing device; wherein the supporting block has a housing inside which said bearing is inserted; wherein said bearing comprises a fixed ring, a rotatable ring which can rotate relative to said fixed ring, and a plurality of rolling elements interposed between said fixed ring and said rotatable ring; wherein said rotatable ring is fitted, in use, onto a rotatable component; wherein said rolling elements allow, in use, a rotation of the rotatable ring relative to the fixed ring; wherein said fixed ring is form-fit mounted inside said supporting block so as to enable said fixed ring to be inclined by an angle (α) with respect to an ideal rotation axis; wherein said rotatable component is a rotating shaft having a rotation axis; wherein said bearing is fitted, in use, onto said rotating shaft; wherein the rotatable ring is the internal ring; wherein said internal ring is fitted onto said rotating shaft to rotate about the rotation axis driven by said rotating shaft; wherein said sealing device comprises a shield and a connecting unit (11, 14), which is configured to fix, in use, said shield to said rotatable component so as to avoid, in use, relative motions between said shield and said rotatable ring; wherein said shield has an opening configured to house, in use, said rotating shaft; wherein said connecting unit (11, 14) is configured to rotate said shield in an integral manner with said internal ring and said rotating shaft; wherein said shield has a cup-shaped body having a circular lateral wall, a top wall wherein said opening is realized in said top wall; wherein said shield is axisymmetric around an axis of symmetry (X'); wherein the radial extension of said shield is greater than the radial extension of the respective bearing, characterized in that said lateral wall is disposed around and encircles a respective portion of the supporting block; wherein said lateral wall is spaced from said portion so that the lateral wall can rotate, in use, without contact around said portion.
A method for marking containers for powder for coating a substrate using a plasma beam, characterized by the following steps: - at least one RFID chip is assigned to each container for powder; - powder is poured into the container; - a key for the at least one RFID chip is retrieved from a producer for a device for use of the powder; - data of the at least one RFID chip located in the container are read, written, and updated by means of the key using an individual parameter set via an antenna located outside the container; and - during the emptying of the powder from the container, the individual parameter set is read, written, and updated, wherein the parameter set comprises a position of a suction means in relation to a surface of the powder in the container, so that in the event of a renewed startup of the device for use of the powder with a partially-emptied container, the suction means can be moved by means of an adjusting element into a defined distance from the surface of the powder or into a defined immersion depth into the surface of the powder. - at least one RFID chip is assigned to each container for powder; - powder is poured into the container; - a key for the at least one RFID chip is retrieved from a producer for a device for use of the powder; - data of the at least one RFID chip located in the container are read, written, and updated by means of the key using an individual parameter set via an antenna located outside the container; and - during the emptying of the powder from the container, the individual parameter set is read, written, and updated, wherein the parameter set comprises a position of a suction means in relation to a surface of the powder in the container, so that in the event of a renewed startup of the device for use of the powder with a partially-emptied container, the suction means can be moved by means of an adjusting element into a defined distance from the surface of the powder or into a defined immersion depth into the surface of the powder.
A method of forming a coated microneedle array comprising providing a microneedle array comprising a microneedle substrate and a plurality of microneedles; wherein the material comprising the microneedle array is selected from polycarbonate and liquid crystalline polymer providing a coating substrate that is at least a portion of a coating well, wherein the coating well comprises a bottom surface; providing an aqueous formulation comprising at least one active pharmaceutical ingredient and at least one excipient, wherein the aqueous formulation has a viscosity of from 0.5 Pa/s to 30 Pa/s (500 to 30,000 centipoise) when measured at a shear rate of 100s -1 and a temperature of 25° C; wherein the aqueous formulation has a surface tension that is from 0.04 N/m to 0.055 N/m (40 to 55 dynes/cm) when measured under ambient conditions; wherein the aqueous formulation has a contact angle on the medical grade polymeric material of 50° or greater when measured under ambient conditions; applying the aqueous formulation to the coating substrate; bringing the aqueous formulation and the microneedles of the microneedle array into contact with one another; wherein the microneedles contact the bottom surface of the coating well; removing the microneedles from the aqueous formulation; and allowing at least a portion of the aqueous formulation to evaporate.
A feeding apparatus to be arranged in connection with the feeding aperture of an animal shelter, in which apparatus there is an air-permeating first wall and a substantially air-restricting second wall, which first and second wall are moveable in front of the feeding aperture to close said feeding aperture, and away from the feeding aperture to open said feeding aperture, characterized in that a feed cover is arranged on the lower edge of the first wall, which feed cover is arranged to cover part of the feed, dispensed through the feeding aperture into the animal shelter, when the first wall is moved in front of the feeding aperture.