mhurhangee/ep-ind-claims huggingface dataset:
An anchoring element (100, 415, 420) for anchoring a rod-shaped element (21, 407) in a bone or a vertebra, the anchoring element comprising a shaft (7, 412) to be anchored in the bone or the vertebra, a receiving part (102, 408, 421) connected to the shaft (7, 412) for receiving the rod-shaped element (21, 407), and a fixation device (109, 410) for fixing the rod-shaped element (21, 407) in the receiving part (102, 408, 421), characterized in that, in the fixed condition of the rod-shaped element (21, 407) the shaft (7, 412) is rotatably connected to the rod-shaped element (21, 407) via the receiving part (102, 408, 421), and a guide surface (152, 406) is provided, which limits the relative movement between the shaft (7, 412) and the rod-shaped element (21, 407) to one degree of rotational freedom.
A method of accelerating a remote desktop session between a web browser (312, 500) of a client device (202, 310) and a remote machine (204, 320) through a transcoding server (208, 330, 400A, 400B), utilizing long polling to reduce traffic to the client device (202, 310), the method comprising: a: receiving, at the transcoding server (208, 330, 400A, 400B), a plurality of drawing requests from the web browser (312, 500) at the client device (202, 310), using HTTP, wherein HTTP is a pull protocol; b: handling, at the transcoding server (208, 330, 400A, 400B), the plurality of drawing requests as long polling requests by a long polling handler; c: receiving, at the transcoding server (208, 330, 400A, 400B), a remote desktop drawing command from the remote machine (204, 320); d: notifying the long polling handler of the remote desktop drawing command; e: translating, at the transcoding server (208, 330, 400A, 400B), the remote desktop drawing command into a web browser drawing update, wherein the remote desktop drawing command is compatible with a push protocol, wherein the web browser drawing update is compatible with HTTP, wherein HTTP is a pull protocol; and f: accelerating providing the web browser drawing update from the transcoding server (208, 330, 400A, 400B) to the web browser (312, 500) of the client device (202, 310), utilizing HTTP, as a response to at least one of the plurality of drawing requests from the web browser (312, 500). a: receiving, at the transcoding server (208, 330, 400A, 400B), a plurality of drawing requests from the web browser (312, 500) at the client device (202, 310), using HTTP, wherein HTTP is a pull protocol; b: handling, at the transcoding server (208, 330, 400A, 400B), the plurality of drawing requests as long polling requests by a long polling handler; c: receiving, at the transcoding server (208, 330, 400A, 400B), a remote desktop drawing command from the remote machine (204, 320); d: notifying the long polling handler of the remote desktop drawing command; e: translating, at the transcoding server (208, 330, 400A, 400B), the remote desktop drawing command into a web browser drawing update, wherein the remote desktop drawing command is compatible with a push protocol, wherein the web browser drawing update is compatible with HTTP, wherein HTTP is a pull protocol; and f: accelerating providing the web browser drawing update from the transcoding server (208, 330, 400A, 400B) to the web browser (312, 500) of the client device (202, 310), utilizing HTTP, as a response to at least one of the plurality of drawing requests from the web browser (312, 500).
An injection molding machine comprising: a movable member which moves forward with respect to a mold unit so as to cause a molding product to protrude from the mold unit; a drive source which moves the movable member forward or rearward; and a controller which controls the drive source, characterized in that the controller is configured to set a first section and a second section based on a rising rate of a detection value of a driving force of the drive source to have different upper limit values of the driving force of the drive source while the controller moves the movable member forward, and to control the drive source such that the driving force does not exceed the upper limit values. a movable member which moves forward with respect to a mold unit so as to cause a molding product to protrude from the mold unit; a drive source which moves the movable member forward or rearward; and a controller which controls the drive source, characterized in that the controller is configured to set a first section and a second section based on a rising rate of a detection value of a driving force of the drive source to have different upper limit values of the driving force of the drive source while the controller moves the movable member forward, and to control the drive source such that the driving force does not exceed the upper limit values.
A photoactivatable fiber having a surface, the photoactivatable fiber comprising: at least one thermoplastic polymer, and at least one photoactivatable agent; wherein the at least one photoactivatable agent is a xanthene dye arranged to absorb and emit light between 400 nm and 800 nm; characterised in that the at least one photoactivatable agent is incorporated in the at least one thermoplastic polymer and on the surface of the photoactivatable fiber. at least one thermoplastic polymer, and at least one photoactivatable agent; wherein the at least one photoactivatable agent is a xanthene dye arranged to absorb and emit light between 400 nm and 800 nm; characterised in that the at least one photoactivatable agent is incorporated in the at least one thermoplastic polymer and on the surface of the photoactivatable fiber.
A terminal device configured to communicate with a base station device, the terminal device comprising: a higher layer processing unit configured to configure a set of physical resource blocks for monitoring an Enhanced Physical Downlink Control Channel, EPDCCH, for a Licensed Assisted Access, LAA, cell to which a non-allocated frequency is configured, the non-allocated frequency being different from an allocated frequency that is allocated as a dedicated frequency to a prescribed operator; and a reception unit configured to monitor the EPDCCH based on the set, wherein the reception unit is configured to determine an antenna port number of an antenna port to be used for the localized EPDCCH transmission in a subframe, based on a number of Orthogonal Frequency Division Multiplex, OFDM, symbols used in the subframe and a type of the subframe. a higher layer processing unit configured to configure a set of physical resource blocks for monitoring an Enhanced Physical Downlink Control Channel, EPDCCH, for a Licensed Assisted Access, LAA, cell to which a non-allocated frequency is configured, the non-allocated frequency being different from an allocated frequency that is allocated as a dedicated frequency to a prescribed operator; and a reception unit configured to monitor the EPDCCH based on the set, wherein the reception unit is configured to determine an antenna port number of an antenna port to be used for the localized EPDCCH transmission in a subframe, based on a number of Orthogonal Frequency Division Multiplex, OFDM, symbols used in the subframe and a type of the subframe.
A device for access protection of a two-wheeler, the device comprising a tarpaulin assembly which is made of a flexible material and fixable to the two-wheeler and which allows, at least in certain parts, visual protection to the two-wheeler in the fixed state, wherein the tarpaulin structure is designed in such a manner that it can cover the entire two-wheeler, and that means for access-protected closing of the tarpaulin structure are assigned to the tarpaulin assembly, wherein the tarpaulin structure is made of a cut-resistant textile and/or plastic fabric which cannot be torn by manual attack, characterized in that the device for access protection is equipped with real-time monitoring means, wherein the real-time monitoring means are disposed inside the tarpaulin structure.
Door unit comprising at least: - a door leaf which has a profile frame which is formed from a leaf profile and in which at least one panel (31, 32) is enclosed, - at least a fixed side part (2, 4) which is formed from an outer frame profile and a base profile, and - a floor sill element, characterized in that - the base profile is formed on the side part (2, 4) by the leaf profile which is placed via an adapter profile on the floor sill element, wherein the height of the adapter profile substantially corresponds to the height of an air gap between the floor sill profile and door leaf, - and in that the leaf profile has on its side which is to face the interior of the building a rebate projection which is arranged laterally next to the adapter profile and which extends to a point below a leaf profile underside on which the adapter profile can be mounted. - a door leaf which has a profile frame which is formed from a leaf profile and in which at least one panel (31, 32) is enclosed, - at least a fixed side part (2, 4) which is formed from an outer frame profile and a base profile, and - a floor sill element, characterized in that - the base profile is formed on the side part (2, 4) by the leaf profile which is placed via an adapter profile on the floor sill element, wherein the height of the adapter profile substantially corresponds to the height of an air gap between the floor sill profile and door leaf, - and in that the leaf profile has on its side which is to face the interior of the building a rebate projection which is arranged laterally next to the adapter profile and which extends to a point below a leaf profile underside on which the adapter profile can be mounted.
A piezoelectric actuator, comprising: a suspension plate having a square shape and with a middle portion and a periphery portion, wherein the suspension plate is permitted to undergo a curvy vibration from the middle portion to the periphery portion; an outer frame arranged around the suspension plate; and a piezoelectric ceramic plate having a square shape, wherein a length of a side of the square shape of the piezoelectric ceramic plate is equal to or less than a length of a side of the square shape of the suspension plate, and the piezoelectric ceramic plate is attached on a first surface of the suspension plate, wherein when a voltage is applied to the piezoelectric ceramic plate, the suspension plate is driven to undergo the curvy vibration, characterized in that the piezoelectric actuator further comprises: plural brackets straightly and perpendicularly connected between the suspension plate and the outer frame for elastically supporting the suspension plate, wherein each bracket has only two opposite ends, a first end of which is perpendicularly connected to the suspension plate and a second end of which is perpendicularly connected to the outer frame. a suspension plate having a square shape and with a middle portion and a periphery portion, wherein the suspension plate is permitted to undergo a curvy vibration from the middle portion to the periphery portion; an outer frame arranged around the suspension plate; and a piezoelectric ceramic plate having a square shape, wherein a length of a side of the square shape of the piezoelectric ceramic plate is equal to or less than a length of a side of the square shape of the suspension plate, and the piezoelectric ceramic plate is attached on a first surface of the suspension plate, wherein when a voltage is applied to the piezoelectric ceramic plate, the suspension plate is driven to undergo the curvy vibration, characterized in that the piezoelectric actuator further comprises: plural brackets straightly and perpendicularly connected between the suspension plate and the outer frame for elastically supporting the suspension plate, wherein each bracket has only two opposite ends, a first end of which is perpendicularly connected to the suspension plate and a second end of which is perpendicularly connected to the outer frame.
A support device for a furniture flap, wherein the support device can be hingedly connected to a furniture carcass and a furniture flap, wherein the support device has a first support arm and a second support arm and the first and second support arms (11, 12) overlap without a gap in every position of the support device laterally with respect to the direction of movement of the support device, characterised in that the first support arm and the second support arm are profiled in cross-section and nested in each other.
Device for high-energy and/or microgrinding of particles by means of free-flowing grinding media in a closed gas atmosphere, comprising, a grinding container for holding the particles and the grinding media with a closed housing and a grinding chamber inside it, and a rotor rotatably mounted around a horizontal rotational axis in the grinding container for accelerating the grinding media during a grinding process, wherein the grinding container is cylindrical, extends along the rotational axis and furthermore comprises: a first end face and a second end face, which are arranged opposite each other and each extend transversely to the rotational axis of the rotor, a first connection port for feeding gas into the grinding chamber and a second connection port for discharging gas from the grinding chamber, wherein the second connection port has a filter which prevents the leakage of particles from the grinding chamber or, wherein a filter is arranged in a line connected to the second connection port and forms a barrier for particles flowing out of the grinding chamber, characterized in that the second connection port is arranged on the second end face and is positioned on the rotational axis. a first end face and a second end face, which are arranged opposite each other and each extend transversely to the rotational axis of the rotor, a first connection port for feeding gas into the grinding chamber and a second connection port for discharging gas from the grinding chamber, wherein the second connection port has a filter which prevents the leakage of particles from the grinding chamber or, wherein a filter is arranged in a line connected to the second connection port and forms a barrier for particles flowing out of the grinding chamber, characterized in that the second connection port is arranged on the second end face and is positioned on the rotational axis.
A method for operating a work attachment of a work machine with a single input, the work machine being propelled by an engine, the method comprising: (a) receiving a lifting lever position input and correlating the lifting lever position input to a required lifting speed; and (b) automatically controlling all three of a speed of the work machine engine, a pump displacement, and a modulating lifting control valve position to satisfy the required lifting speed, wherein the work machine engine speed, the pump displacement, and the modulating lifting control valve position are sequentially staged in pre-defined zones of operation to satisfy the required lifting speed. (a) receiving a lifting lever position input and correlating the lifting lever position input to a required lifting speed; and (b) automatically controlling all three of a speed of the work machine engine, a pump displacement, and a modulating lifting control valve position to satisfy the required lifting speed, wherein the work machine engine speed, the pump displacement, and the modulating lifting control valve position are sequentially staged in pre-defined zones of operation to satisfy the required lifting speed.
A prefabricated pumping station unit, comprising a prefabricated hollow-shaped pumping station body, a liquid inlet and a liquid outlet connected to the pumping station body, and a well-shaped column mounted in the station body, wherein the circumference of the cross section of the upper end portion of the pumping station body is larger than the circumference of the cross section of the lower end portion thereof, wherein the pumping station body comprises a first tubular portion and a tapered portion, connecting the lower end portion of the first tubular portion, wherein the cross sectional dimension of the tapered portion gradually decreases in a direction from top to bottom, and wherein the liquid inlet is provided in the first tubular portion, characterized in that the pumping station body further comprises a second tubular portion, the cross sectional dimension of the second tubular portion is smaller than the first tubular portion and the second tubular portion is connected to a lower end portion of the tapered portion.
A composition comprising: an organosilane having the average formula: (CH 3)(CH 3 CH 2 O) 2 SiCH 2 CH 2 CH 2 O(CH 2 CH 2 O) 7 CH 3, or (CH 3)(CH 3 O) 2 SiCH 2 CH 2 C(CH 3) 2 O(C 2 H 4 O) 18 (C 3 H 6 O) 18 H; and at least one of a thermoplastic resin, a thermoset resin, and an elastomer. an organosilane having the average formula: (CH 3)(CH 3 CH 2 O) 2 SiCH 2 CH 2 CH 2 O(CH 2 CH 2 O) 7 CH 3, or (CH 3)(CH 3 O) 2 SiCH 2 CH 2 C(CH 3) 2 O(C 2 H 4 O) 18 (C 3 H 6 O) 18 H; and at least one of a thermoplastic resin, a thermoset resin, and an elastomer.
A method of processing local area network diagnostic data obtained in respect of a local area network, the local area network having at least one user-device (102a, 102b) located therein operable to communicate via a local area network gateway device with one or more remote devices in a communications network outside the local area network, the local area network diagnostic data comprising a plurality of data units carrying data relating to performance characteristics of the local area network, said data units comprising fields having field-values stored therein, the method comprising: calculating a data-unit-value for each of a plurality of said data units, the data-unit-value for a data unit being calculated according to a predetermined function of one or more field-values stored in one or more of the fields in the data unit; identifying a first and second data unit from the plurality of data units as being similar according to predetermined criteria in dependence on a comparison of their respective data-unit-values, the second data unit having at least one field-value stored in at least one field which differs from a corresponding field-value stored in at least one corresponding field of the first data unit; in response to such an identification, creating a third data unit comprising at least one field containing a field-value indicative of the first data unit and at least one field containing an indication of the at least one field-value which differs from the corresponding field-value stored in the corresponding field of the first data unit; and then sending the first data unit and the third data unit from the local area network for local area network performance analysis at a remote network diagnostic device in the communications network outside the local area network. calculating a data-unit-value for each of a plurality of said data units, the data-unit-value for a data unit being calculated according to a predetermined function of one or more field-values stored in one or more of the fields in the data unit; identifying a first and second data unit from the plurality of data units as being similar according to predetermined criteria in dependence on a comparison of their respective data-unit-values, the second data unit having at least one field-value stored in at least one field which differs from a corresponding field-value stored in at least one corresponding field of the first data unit; in response to such an identification, creating a third data unit comprising at least one field containing a field-value indicative of the first data unit and at least one field containing an indication of the at least one field-value which differs from the corresponding field-value stored in the corresponding field of the first data unit; and then sending the first data unit and the third data unit from the local area network for local area network performance analysis at a remote network diagnostic device in the communications network outside the local area network.
A method for determining a three-dimensional location of an object using a two-dimensional image obtained with a medical imaging system, the steps of the method comprising: a) obtaining images with the medical imaging system; b) selecting one of the images obtained in step a); c) producing an initial image by down-sampling the image selected in step) by a down-sampling factor; d) selecting an initial position estimate of the three-dimensional location of the object; e) calculating an updated position estimate by comparing the initial image with a template image of the object, the template image depicting a synthesized projection image of the object positioned in the medical imaging system at a position estimate that is in a neighborhood about the selected initial position estimate; f) calculating a refined position estimate by comparing the image selected in step b) with an updated template image, the updated template image depicting a synthesized projection image of the object positioned in the medical imaging system at the updated position estimate; and g) determining from the refined position estimate calculated in step f), at least one of the three-dimensional location and orientation of the object. a) obtaining images with the medical imaging system; b) selecting one of the images obtained in step a); c) producing an initial image by down-sampling the image selected in step) by a down-sampling factor; d) selecting an initial position estimate of the three-dimensional location of the object; e) calculating an updated position estimate by comparing the initial image with a template image of the object, the template image depicting a synthesized projection image of the object positioned in the medical imaging system at a position estimate that is in a neighborhood about the selected initial position estimate; f) calculating a refined position estimate by comparing the image selected in step b) with an updated template image, the updated template image depicting a synthesized projection image of the object positioned in the medical imaging system at the updated position estimate; and g) determining from the refined position estimate calculated in step f), at least one of the three-dimensional location and orientation of the object.