mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for conveying and ejecting bulk material or snow, comprising at least one conveying device having a tubular conveyor housing which is partially open at the circumference, wherein the conveying direction of which conveying device extends substantially in the direction of the tube axis, further comprising at least one ejection centrifuge which adjoins the at least one conveying device in the conveying direction and has a centrifugal wheel which has at least one ejection lever and can be driven to rotate about an axis of rotation, and further comprising an centrifugal wheel housing having an ejection opening, in which centrifugal wheel housing the centrifugal wheel is arranged, wherein the conveyor housing having a smaller diameter than the centrifugal wheel and the tube axis being arranged parallel below the axis of rotation of the centrifugal wheel at a vertical normal distance, characterized in that the axis of rotation of the centrifugal wheel and the tube axis of the conveyor housing lie on a substantially vertical straight line.
A method for the real-time determination of a photon noise value in coherent optical communication devices comprising at least one transmitter Alice and at least one receiver Bob, said transmitter Alice transmitting the pulses of the signal S and a local oscillator S OL to Bob, said local oscillator acting as a phase reference against which the phase of the signal is defined, the local oscillator pulses being large before the signal pulses, said receiver comprising at least one coherent detector, characterised in that it comprises at least the following steps of, with respect to said receiver Bob: • carrying out noise measurements, by coherent detection and for a plurality of pulses, for pulses of the signal S r that are known to said receiver Bob and are attenuated at said receiver Bob for at least two attenuation ratios, a first value a 1 and a second attenuation value a 2; • grouping the measurements according to the attenuation ratio a 1, a 2 that is applied thereto so as to form at least two groups G k, k=1, 2, computing the variances of the measured noise Vbm k of the measurements on these groups, with Vbm k being equal to the sum of the signal noise variance equal to Vbs* a k and of the photon noise variance equal to Vbp, and determining the signal noise variance Vbs and the photon noise variance Vbp on the basis of the variances Vbm k of the measurements on these groups G k. • carrying out noise measurements, by coherent detection and for a plurality of pulses, for pulses of the signal S r that are known to said receiver Bob and are attenuated at said receiver Bob for at least two attenuation ratios, a first value a 1 and a second attenuation value a 2; • grouping the measurements according to the attenuation ratio a 1, a 2 that is applied thereto so as to form at least two groups G k, k=1, 2, computing the variances of the measured noise Vbm k of the measurements on these groups, with Vbm k being equal to the sum of the signal noise variance equal to Vbs* a k and of the photon noise variance equal to Vbp, and determining the signal noise variance Vbs and the photon noise variance Vbp on the basis of the variances Vbm k of the measurements on these groups G k.
A demolishing apparatus for demolishing a concrete structure, comprising a crushing blade for concrete crushing, a cutting blade for metal cutting, a combination blade for use in concrete crushing jointly with the crushing blade and for use in metal cutting jointly with the cutting blade, and actuation elements (240a, 240b) for operating the crushing, cutting and combination blades, which apparatus is attachable to a utility machine in a removable manner, wherein the crushing and cutting blades (220, 230) are separate from each other, wherein the crushing blade makes up a first crushing jaw, and the attached combination and cutting blades jointly make up a second crushing jaw, and wherein the attached crushing and combination blades make up a first cutting jaw, and the cutting blade makes up a second cutting jaw, characterized in that the actuation elements (240a, 240b) compress the crushing jaws (222a, 222b) and the cutting jaws (232a, 232b) towards each other, wherein the crushing, cutting, and combination blades (220, 230, 250) move around a common center axle.
A method of manufacturing a dental prosthesis, the prosthesis comprising a root portion, the root portion configured to be integrated into and held by the dental anatomy of the patient, the method comprising: - receiving in-vivo three-dimensional imaging data (step D) of the tooth to be replaced prior to extraction; - deriving design data of at least a portion of the prosthesis from the imaging data, the design data including a design of the root portion; - deriving numerical control data from the design data; - manufacturing the root portion, the manufacturing includes processes performed at least partially in response to the numerical control data; - manufacturing of the root portion of the prosthesis prior integration of the root portion into the dental anatomy of the patient; characterized in that - the design of the root portion is undersized to provide modified root design data; and - the root portion is manufactured based on the modified root design data (step I). - receiving in-vivo three-dimensional imaging data (step D) of the tooth to be replaced prior to extraction; - deriving design data of at least a portion of the prosthesis from the imaging data, the design data including a design of the root portion; - deriving numerical control data from the design data; - manufacturing the root portion, the manufacturing includes processes performed at least partially in response to the numerical control data; - manufacturing of the root portion of the prosthesis prior integration of the root portion into the dental anatomy of the patient; - the design of the root portion is undersized to provide modified root design data; and - the root portion is manufactured based on the modified root design data (step I).
A sealing device for a rear viewing device, such as an interior or exterior mirror or a camera, of a motor vehicle that can be arranged between a foot part and a head part rotatable from a normal position to at least one swung-down position relative to the foot part, having at least one sealing means that is fixable or is fixed on the foot part or on the head part and that can be arranged or is arranged in a sealing arrangement, in which it seals, resting on the foot part and on the head part, a gap existing between the foot part and the head part, characterized by at least one spacing means, by means of which the sealing means is transferable, at least when moving the head part from the normal position to the swung-down position, at least at times from the sealing arrangement to an unblocking arrangement, in which it is arranged such that it does not come into contact with the head part and/or the foot part.
A lighting arrangement, in particular a safety lighting comprising: at least one light emitting diode arrangement with at least one light emitting diode; at least one lens arrangement (20, 40), on which at least two optical elements (21, 22, 23) are arranged; wherein the lens arrangement (20, 40) is arranged over the light emitting diode arrangement and the arrangements (10, 20, 40) engage each other in such a way that in each case one of the at least two optical elements (21, 22, 23) of the lens arrangement (20, 40) can be arranged through a defined movement of the arrangements (10, 20, 40) relative to each other over the at least one light emitting diode of the light emitting diode arrangement, and thus light can be guided through the optical element (21, 22, 23) arranged over the light emitting diode; characterized in that at least on one of the light emitting diode arrangement and the lens arrangement (20, 40) guidance means are provided, which during a relative movement of the optical element (21, 22, 23) and the light emitting diode towards each other initially push an optical element (21, 22, 23) away from the light emitting diode arrangement and during a further relative movement of the optical element (21, 22, 23) and the light emitting diode towards each other lower the optical element (21, 22, 23) again over the at least one light emitting diode, so that the optical element (21, 22, 23) is arranged over the at least one light emitting diode. at least one light emitting diode arrangement with at least one light emitting diode; at least one lens arrangement (20, 40), on which at least two optical elements (21, 22, 23) are arranged; wherein the lens arrangement (20, 40) is arranged over the light emitting diode arrangement and the arrangements (10, 20, 40) engage each other in such a way that in each case one of the at least two optical elements (21, 22, 23) of the lens arrangement (20, 40) can be arranged through a defined movement of the arrangements (10, 20, 40) relative to each other over the at least one light emitting diode of the light emitting diode arrangement, and thus light can be guided through the optical element (21, 22, 23) arranged over the light emitting diode; characterized in that at least on one of the light emitting diode arrangement and the lens arrangement (20, 40) guidance means are provided, which during a relative movement of the optical element (21, 22, 23) and the light emitting diode towards each other initially push an optical element (21, 22, 23) away from the light emitting diode arrangement and during a further relative movement of the optical element (21, 22, 23) and the light emitting diode towards each other lower the optical element (21, 22, 23) again over the at least one light emitting diode, so that the optical element (21, 22, 23) is arranged over the at least one light emitting diode.
An index display method for an electronic device comprising a display, comprising: obtaining list information of a first list (41, 71); displaying a first page in response to an operation of a user, wherein the first page comprises the first list (41, 71); and displaying an index (45, 74, 75) corresponding to the first list (41, 71) when the first list (41, 71) is located in a preset display region of a display interface (44, 73)) and the list information meets a preset condition; wherein the index (45, 74, 75) comprises at least one index (45, 74, 75) label, and the list information comprises a quantity of index (45, 74, 75) labels corresponding to the first list (41, 71); and wherein the list information meets a preset condition comprises: the quantity of index (45, 74, 75) labels corresponding to the first list (41, 71) is greater than a preset value. obtaining list information of a first list (41, 71); displaying a first page in response to an operation of a user, wherein the first page comprises the first list (41, 71); and displaying an index (45, 74, 75) corresponding to the first list (41, 71) when the first list (41, 71) is located in a preset display region of a display interface (44, 73)) and the list information meets a preset condition; wherein the index (45, 74, 75) comprises at least one index (45, 74, 75) label, and the list information comprises a quantity of index (45, 74, 75) labels corresponding to the first list (41, 71); and wherein the list information meets a preset condition comprises: the quantity of index (45, 74, 75) labels corresponding to the first list (41, 71) is greater than a preset value.
An intraocular lens delivery device (49, 100, 149, 249) for retaining and delivering an intraocular lens, said intraocular lens delivery device (49, 100, 149, 249) comprising: a macro movement actuator which is configured to be actuated to move the intraocular lens into position in the device for the intraocular lens to be delivered; and a micro movement actuator comprising at least one pivotable member which is configured to be pivoted to deliver the intraocular lens, characterised in that the micro movement actuator comprises a worm gear which engages a gear inside the intraocular lens delivery device (49, 100, 149, 249).
Rotary displacement machine, in particular a compressor or pump, with a drive shaft and an annular space arranged eccentrically to the drive shaft, with an inlet and an outlet, wherein two parallel side surfaces form the side delimitations of the annular space, and of which the inner delimitation is a first cylinder casing portion surface and of which the outer delimitation is a second cylinder casing portion surface, wherein the two cylinder casing portion surfaces are configured as being of equal width and are arranged concentrically, and the radius of the second cylinder casing portion surface is greater than the radius of the second cylinder casing portion surface, wherein, further, rotating segment-shaped displacement bodies are provided in the annular space, which are driven from outside by means of magnetic force transfer elements, wherein, for this purpose, arranged outside the annular space and laterally to the one side surface, is a driver disk located on the drive shaft, wherein the force transfer elements are configured as pairs of magnets, of which the magnets forming one half are provided at the respective displacement body, and of which the magnets forming the other half are provided in each case at the driver disk, characterised in that, for the driving of the displacement body, a further driver disk is located on the drive shaft, outside the annular space and laterally next to the other side surface, which drives the displacement body from the outside by means of magnetic force transfer elements, wherein, here too, the force transfer elements are configured as pairs of magnets, of which the magnets forming the one half are provided at the respective displacement body, and the magnets forming the other half are in each case provided at the driver disk, wherein, further, the movements of the magnets of the driver disks in each case describe a guide path.
A system comprising: a processor (108, 170); a sensor; and a memory (110, 172) connected to the processor (108, 170) and the sensor, storing instructions that, when executed, cause the system to: receive sensor data from the sensor; determine an application environment associated with an audio reproduction device based on the sensor data, wherein the audio reproduction device is associated with a user, wherein the application environment includes one or more deteriorating factors that deteriorate a sound quality of the audio reproduction device; estimate a sound leakage caused by the one or more deteriorating factors; determine one or more sound profiles based on the application environment and the sound leakage; provide the one or more sound profiles to the user via a display of a user interface; receive a selection of a first sound profile of the one or more sound profiles from the user via the user interface; and generate tuning data based on the first sound profile, the tuning data configured to sonically customize the audio reproduction device. a processor (108, 170); a sensor; and a memory (110, 172) connected to the processor (108, 170) and the sensor, storing instructions that, when executed, cause the system to: receive sensor data from the sensor; determine an application environment associated with an audio reproduction device based on the sensor data, wherein the audio reproduction device is associated with a user, wherein the application environment includes one or more deteriorating factors that deteriorate a sound quality of the audio reproduction device; estimate a sound leakage caused by the one or more deteriorating factors; determine one or more sound profiles based on the application environment and the sound leakage; provide the one or more sound profiles to the user via a display of a user interface; receive a selection of a first sound profile of the one or more sound profiles from the user via the user interface; and generate tuning data based on the first sound profile, the tuning data configured to sonically customize the audio reproduction device. receive sensor data from the sensor; determine an application environment associated with an audio reproduction device based on the sensor data, wherein the audio reproduction device is associated with a user, wherein the application environment includes one or more deteriorating factors that deteriorate a sound quality of the audio reproduction device; estimate a sound leakage caused by the one or more deteriorating factors; determine one or more sound profiles based on the application environment and the sound leakage; provide the one or more sound profiles to the user via a display of a user interface; receive a selection of a first sound profile of the one or more sound profiles from the user via the user interface; and generate tuning data based on the first sound profile, the tuning data configured to sonically customize the audio reproduction device.
A sheet winding molding method comprising winding a thermosetting prepreg around a substrate while heating the thermosetting prepreg, characterised in that the time taken to form a next layer of the thermosetting prepreg on a layer of the wound thermosetting prepreg is shorter than the gel time of the prepreg at the temperature of the wound thermosetting prepreg, wherein the gel time of the thermosetting prepreg at 150°C is in the range of 15 to 60 seconds.
A sheet slitting mechanism comprising: a framework having sides that support a first drive shaft (150, 152, 154, 156) and a second drive shaft (150, 152, 154, 156), each having a respective rotational axis, wherein each axis is substantially parallel to the other axis; a first slitter element (160, 162) mounted on the first drive shaft (150, 152, 154, 156) and including an axially movable first wedge assembly that is normally biased into an axially locked position on the first drive shaft (150, 152, 154, 156); a second slitter element (160, 162) mounted on the second drive shaft (150, 152, 154, 156) that impinges to first slitter element (160, 162) to form a shear; and a key assembly (190, 192) constructed and arranged to selectively engage the first slitter element (160, 162) to axially move the first wedge assembly into an axially unlocked position, the first key assembly (190, 192) being movable in the axial direction to move each of the first slitter element (160, 162) axially along the first drive shaft (150, 152, 154, 156) and the second slitter element (160, 162) axially along the second drive shaft (150, 152, 154, 156). a framework having sides that support a first drive shaft (150, 152, 154, 156) and a second drive shaft (150, 152, 154, 156), each having a respective rotational axis, wherein each axis is substantially parallel to the other axis; a first slitter element (160, 162) mounted on the first drive shaft (150, 152, 154, 156) and including an axially movable first wedge assembly that is normally biased into an axially locked position on the first drive shaft (150, 152, 154, 156); a second slitter element (160, 162) mounted on the second drive shaft (150, 152, 154, 156) that impinges to first slitter element (160, 162) to form a shear; and a key assembly (190, 192) constructed and arranged to selectively engage the first slitter element (160, 162) to axially move the first wedge assembly into an axially unlocked position, the first key assembly (190, 192) being movable in the axial direction to move each of the first slitter element (160, 162) axially along the first drive shaft (150, 152, 154, 156) and the second slitter element (160, 162) axially along the second drive shaft (150, 152, 154, 156).
An apparatus for configuring a seismic device positioned in a geographical area of interest, comprising: a memory module (408;408a) configured to store data associated with the seismic device; a processor configured to retrieve the data from the memory module (408;408a) and a communication device operatively coupled to the processor, the communication device transmitting the retrieved data to the seismic device; characterised in that said apparatus further comprises at least one location sensor determining at least one location parameter for the seismic device, wherein the at least one location parameter is one of: (i) elevation; (ii) z-coordinate; (iii) inclination; (iv) tilt; and (v) azimuth; the processor being in communication with the at least one location sensor; and an alignment member receiving the at least one location sensor, the alignment member aligning the at least one location sensor with the seismic device. a memory module (408;408a) configured to store data associated with the seismic device; a processor configured to retrieve the data from the memory module (408;408a) and a communication device operatively coupled to the processor, the communication device transmitting the retrieved data to the seismic device; characterised in that said apparatus further comprises at least one location sensor determining at least one location parameter for the seismic device, wherein the at least one location parameter is one of: (i) elevation; (ii) z-coordinate; (iii) inclination; (iv) tilt; and (v) azimuth; the processor being in communication with the at least one location sensor; and an alignment member receiving the at least one location sensor, the alignment member aligning the at least one location sensor with the seismic device.
A terminally iodized polyfluoroalkane represented by the general formula: C n F 2n+1 (CHXCFY) s+p (CF 2 CF 2) t+r I wherein X and Y are each a hydrogen atom or a fluorine atom, wherein when Y is a fluorine atom, X is also a fluorine atom; n is an integer of 1 to 6; s+p is an integer of 1 to 5 and denotes the number of CHXCFY group; and t+r is an integer of 1 to 6 and denotes the number of tetrafluoroethylene skeleton.
An electrical connector, comprising: a connector body having opposite first and second ends, said first end being configured to be coupled with a prepared end of a cable; a coupling member having an interface end configured to interface with a mating connector and a free end opposite said interface end that is rotatable with respect to said connector body at said second end of said connector body; a post member that is insertable into said connector body for coupling to the prepared end of the cable; said coupling member being rotatably coupled to an end of said post member; and a resilient grounding member; wherein each of said connector body, said coupling member, and said resilient grounding member is conductive thereby creating a grounding path between said connector body and said coupling member; characterized in that said resilient grounding member is disposed between an outer surface of said second end of said connector body and said free end of said coupling member, such that the entirety of said resilient grounding member is exposed outside of said connector body and said coupling member. a connector body having opposite first and second ends, said first end being configured to be coupled with a prepared end of a cable; a coupling member having an interface end configured to interface with a mating connector and a free end opposite said interface end that is rotatable with respect to said connector body at said second end of said connector body; a post member that is insertable into said connector body for coupling to the prepared end of the cable; said coupling member being rotatably coupled to an end of said post member; and a resilient grounding member; wherein each of said connector body, said coupling member, and said resilient grounding member is conductive thereby creating a grounding path between said connector body and said coupling member; characterized in that said resilient grounding member is disposed between an outer surface of said second end of said connector body and said free end of said coupling member, such that the entirety of said resilient grounding member is exposed outside of said connector body and said coupling member.