mhurhangee/patent-ind-claim-en huggingface dataset:
Method for calibrating a machine-integrated measuring system of a track tamping machine , the machine-integrated measuring system used for measuring the position of a track, the track tamping machine equipped with a tamping unit and with a track lifting and positioning device , wherein the measuring system for determining a vertical and a lateral position of the track is equipped with a measuring chord (I) having a chord division (a, b), characterized in that first of all, over a certain measuring distance (>I) along an at least approximate straight track line, on the one hand a locus (RK) is measured with an inertial navigation measuring system (INS) and stored and, on the other hand, the same distance is measured with the machine-integrated measuring system and stored, after which the longitudinal levels and versines (f INS ) are calculated from the locus (RK) taking into account the chord division (a, b) of the measuring chord (I) into the locus (RK) and the calculated longitudinal levels and versines (f INS ) are - if necessary - aligned with the longitudinal levels and versines (f M ) measured with the machine-integrated measuring system in the track direction and then a difference curve (f INS -f M ) is formed from the longitudinal levels and versines (f INS ) and the longitudinal levels and versines (f M ), and from this difference curve (f INS -f M ) an average value ( MW fINS-fM ) is calculated over the measuring distance, which average value ( MW fINS-fM ) corresponds to an offset (ΔF) around which the machine-integrated system is subsequently calibrated.
A computer-implemented method for obtaining anatomical measurements in an ultrasound image, the method comprising: receiving user input data representing a set of two or more user-selected points within the ultrasound image; identifying within the image an anatomical region corresponding to a location of at least one of the user-selected points; identifying a geometrical characteristic of the set of user-selected points; accessing a pre-stored set of measurement templates, each measurement template in the set being associated with one or more known anatomical regions and geometrical characteristics, and selecting a measurement template associated with the identified anatomical region and geometrical characteristic; and deriving an anatomical measurement from the set of user-defined points, using the measurement template, wherein identifying the geometrical characteristic includes identifying shape information relating to a line or pattern described by at least a subset of the user-selected points. receiving user input data representing a set of two or more user-selected points within the ultrasound image; identifying within the image an anatomical region corresponding to a location of at least one of the user-selected points; identifying a geometrical characteristic of the set of user-selected points; accessing a pre-stored set of measurement templates, each measurement template in the set being associated with one or more known anatomical regions and geometrical characteristics, and selecting a measurement template associated with the identified anatomical region and geometrical characteristic; and deriving an anatomical measurement from the set of user-defined points, using the measurement template, wherein identifying the geometrical characteristic includes identifying shape information relating to a line or pattern described by at least a subset of the user-selected points.
Apparatus for working bars, comprising a plurality of containing devices (11a-11f) disposed adjacent and parallel to each other and with an oblong development in respective longitudinal directions (L) to contain a respective bundle (F1-F6) of bars (B1-B6) and at least a work station located downstream of said containing devices (11a-11f), said work station comprising at least a removal device to remove at least one bar (B1-B6) from one of said containing devices (11a-11f), at least a drawing unit configured to move the bars (B1-B6) in a direction of feed (A) parallel to said longitudinal directions (L), and at least a bending device configured to bend said bars (B1-B6), said apparatus for working bars being characterized in that at least a drive member is associated with said work station , configured to move said work station in a transverse direction (T) with respect to said longitudinal directions (L) so as to take said removal device into correspondence with one or the other of said containing devices (11a-11f), which are substantially fixed in position.
A straight-through switching valve, comprising a valve core and a valve body, the valve core is inserted into the valve body ; the valve core is respectively disposed with a first water outlet and a second water outlet along an axial direction; the valve body is provided with an accommodating cavity extending along an axial direction of the valve body, and a sidewall of the valve body is respectively provided with a first sealing member and a second sealing member connected to the accommodating cavity along the axial direction of the valve body, and the first sealing member and the second sealing member are disposed at an angle along a radial direction of the valve body; the valve body is further respectively provided with a first water passage hole and a second water passage hole along the axial direction of the valve body, the water outflow direction of the first water passage hole is parallel to the axial direction of the valve body, and the water outflow direction of the second water passage hole is perpendicular to the axial direction of the valve body; the valve core is inserted in the accommodating cavity along the axial direction, and can be rotated relative to the valve body around the axial direction in the accommodating cavity ; characterized in that , when the first water outlet is connected to the first water passage hole , the second water outlet is sealed by the second sealing member ; when the second water outlet is connected to the second water passage hole , the first water outlet is sealed by the first sealing member . a valve core and a valve body, the valve core is inserted into the valve body ; the valve core is respectively disposed with a first water outlet and a second water outlet along an axial direction; the valve body is provided with an accommodating cavity extending along an axial direction of the valve body, and a sidewall of the valve body is respectively provided with a first sealing member and a second sealing member connected to the accommodating cavity along the axial direction of the valve body, and the first sealing member and the second sealing member are disposed at an angle along a radial direction of the valve body; the valve body is further respectively provided with a first water passage hole and a second water passage hole along the axial direction of the valve body, the water outflow direction of the first water passage hole is parallel to the axial direction of the valve body, and the water outflow direction of the second water passage hole is perpendicular to the axial direction of the valve body; the valve core is inserted in the accommodating cavity along the axial direction, and can be rotated relative to the valve body around the axial direction in the accommodating cavity ; characterized in that , when the first water outlet is connected to the first water passage hole , the second water outlet is sealed by the second sealing member ; when the second water outlet is connected to the second water passage hole , the first water outlet is sealed by the first sealing member .
A synchronization signal transmission method, comprising: generating a synchronization signal block, wherein the synchronization signal block comprises a synchronization signal and a broadcast signal, a scrambling code of the broadcast signal is corresponding to a part of bits of the sequence number of the synchronization signal block, and the sequence number indicates a location of the synchronization signal block in a plurality of synchronization signal blocks; and sending the synchronization signal block; wherein a binary bit form of the sequence number comprises two parts, and one of the two parts is corresponding to the scrambling code, wherein the two parts are a high-order bit part and a low-order bit part; and wherein another one of the two parts is indicated by one of the following sequence number indication information carried in the broadcast signal, a cyclic redundancy check CRC mask of the broadcast signal, a bijective transformation parameter of the broadcast signal, cyclic shift information of channel coding of the broadcast signal, and a system frame number carried in the broadcast signal. generating a synchronization signal block, wherein the synchronization signal block comprises a synchronization signal and a broadcast signal, a scrambling code of the broadcast signal is corresponding to a part of bits of the sequence number of the synchronization signal block, and the sequence number indicates a location of the synchronization signal block in a plurality of synchronization signal blocks; and sending the synchronization signal block; wherein a binary bit form of the sequence number comprises two parts, and one of the two parts is corresponding to the scrambling code, wherein the two parts are a high-order bit part and a low-order bit part; and wherein another one of the two parts is indicated by one of the following sequence number indication information carried in the broadcast signal, a cyclic redundancy check CRC mask of the broadcast signal, a bijective transformation parameter of the broadcast signal, cyclic shift information of channel coding of the broadcast signal, and a system frame number carried in the broadcast signal.
A method for wireless communication at a base station, comprising: receiving user equipment, UE, capability information from a plurality of UEs being served by the base station over a shared radio frequency spectrum band; determining , based on the UE capability information associated with the plurality of UEs, a logical channel allocation for the shared radio frequency spectrum band comprising an interlaced resource assignment bandwidth region and a contiguous resource assignment bandwidth region; transmitting first and second uplink resource allocations for the shared radio frequency spectrum band for an uplink transmission time interval to first and second UEs, respectively, the first uplink resource allocation comprising an interlaced resource assignment in the interlaced resource assignment bandwidth region and the second uplink resource allocation comprising a contiguous resource assignment in the contiguous resource assignment bandwidth region; and receiving respective uplink transmissions from the first and second UEs in the uplink transmission time interval over the shared radio frequency spectrum band. receiving user equipment, UE, capability information from a plurality of UEs being served by the base station over a shared radio frequency spectrum band; determining , based on the UE capability information associated with the plurality of UEs, a logical channel allocation for the shared radio frequency spectrum band comprising an interlaced resource assignment bandwidth region and a contiguous resource assignment bandwidth region; transmitting first and second uplink resource allocations for the shared radio frequency spectrum band for an uplink transmission time interval to first and second UEs, respectively, the first uplink resource allocation comprising an interlaced resource assignment in the interlaced resource assignment bandwidth region and the second uplink resource allocation comprising a contiguous resource assignment in the contiguous resource assignment bandwidth region; and receiving respective uplink transmissions from the first and second UEs in the uplink transmission time interval over the shared radio frequency spectrum band.
A heating zone for a cooking hob, in particular for an induction cooking hob, wherein: - the heating zone comprises an illumination device , - the illumination device comprises at least one light source element , - the illumination device comprises at least one reflecting element , - the illumination device comprises at least one reflecting, diffusing and/or refracting layer , - the illumination device comprises at least one insulating layer horizontally arranged within the heating zone , - said insulating layer includes at least one light channel formed as a cut-out, - the reflecting, diffusing and/or refracting layer covers at least the light channel , and - the light source element and the reflecting element are arranged that a light beam from said light source element is redirected by the reflecting element into the light channel , characterized in that the reflecting, diffusing and/or refracting layer is made of mica. - the heating zone comprises an illumination device , - the illumination device comprises at least one light source element , - the illumination device comprises at least one reflecting element , - the illumination device comprises at least one reflecting, diffusing and/or refracting layer , - the illumination device comprises at least one insulating layer horizontally arranged within the heating zone , - said insulating layer includes at least one light channel formed as a cut-out, - the reflecting, diffusing and/or refracting layer covers at least the light channel , and - the light source element and the reflecting element are arranged that a light beam from said light source element is redirected by the reflecting element into the light channel ,
A method of producing a wet-cast slag-based concrete product comprising steps of: providing a slag-based binder, an aggregate and water; mixing the slag-based binder, the aggregate and the water to produce a non-zero-slump concrete composition comprising a first water to slag-based binder ratio by weight of greater than 0.2; casting the non-zero-slump concrete composition by transferring the non-zero-slump concrete composition into a mould; setting the non-zero-slump concrete composition within the mould to produce a slag-based intermediate comprising a second water to slag-based binder ratio by weight that is less than the first water to slag-based binder ratio by weight; demoulding the slag-based intermediate to produce a demoulded intermediate; pre-conditioning the demoulded intermediate to produce a demoulded pre-conditioned slag-based intermediate comprising a third water to slag-based binder ratio by weight that is less than the first water to slag-based binder ratio by weight and that is also less than the second water to slag-based binder ratio by weight; and curing the demoulded pre-conditioned slag-based intermediate with carbon dioxide to produce the wet-cast slag-based concrete product, wherein the step of casting of the non-zero-slump concrete composition is free of pressing/compaction. providing a slag-based binder, an aggregate and water; mixing the slag-based binder, the aggregate and the water to produce a non-zero-slump concrete composition comprising a first water to slag-based binder ratio by weight of greater than 0.2; casting the non-zero-slump concrete composition by transferring the non-zero-slump concrete composition into a mould; setting the non-zero-slump concrete composition within the mould to produce a slag-based intermediate comprising a second water to slag-based binder ratio by weight that is less than the first water to slag-based binder ratio by weight; demoulding the slag-based intermediate to produce a demoulded intermediate; pre-conditioning the demoulded intermediate to produce a demoulded pre-conditioned slag-based intermediate comprising a third water to slag-based binder ratio by weight that is less than the first water to slag-based binder ratio by weight and that is also less than the second water to slag-based binder ratio by weight; and curing the demoulded pre-conditioned slag-based intermediate with carbon dioxide to produce the wet-cast slag-based concrete product, wherein the step of casting of the non-zero-slump concrete composition is free of pressing/compaction.
A distributed electrical system for a gas turbine engine, comprising: a plurality of engine components each in electrical communication with one of a plurality of docking stations ; and an electronic engine control positioned remote from the engine components , characterized by : an electrical wiring harness electrically connecting each of the plurality of docking stations with a power source , wherein the power source is a permanent magnet alternator driven by a gearbox ; a portion of the electrical wiring harness extends through internal passages in the gearbox to connect one of the plurality of engine components on the gearbox to the power source ; and the electronic engine control is configured to communicate wirelessly with each of the plurality of engine components . a plurality of engine components each in electrical communication with one of a plurality of docking stations ; and an electronic engine control positioned remote from the engine components , characterized by : an electrical wiring harness electrically connecting each of the plurality of docking stations with a power source , wherein the power source is a permanent magnet alternator driven by a gearbox ; a portion of the electrical wiring harness extends through internal passages in the gearbox to connect one of the plurality of engine components on the gearbox to the power source ; and the electronic engine control is configured to communicate wirelessly with each of the plurality of engine components . an electrical wiring harness electrically connecting each of the plurality of docking stations with a power source , wherein the power source is a permanent magnet alternator driven by a gearbox ; a portion of the electrical wiring harness extends through internal passages in the gearbox to connect one of the plurality of engine components on the gearbox to the power source ; and the electronic engine control is configured to communicate wirelessly with each of the plurality of engine components .
A shower head having a housing , comprising: a) a water inlet ; b) a distributor chamber ; c) at least one first valve comprising i) a first valve aperture , and ii) a first sealing element ; d) an actuator ; and e) a jet former ; wherein the water inlet is connected, for conducting water, to the distributor chamber ; wherein the distributor chamber is connected via the first valve aperture and a first water path, for conducting water, to a first area of the jet former ; wherein the actuator is arranged and configured for carrying out an actuating movement; wherein the actuator is furthermore arranged and configured for guiding the first sealing element during the actuating movement such that the first sealing element switches the first valve aperture from an open state to a closed state and vice versa; wherein the first sealing element and the actuator each have a Shore hardness D ranging from 20 to 100 on surfaces which are contacted with one another during the actuating movement; characterized in that the first sealing element comprises a first pin, wherein the actuator comprises a first control curve , wherein the first pin is guided in the first control curve , and wherein the actuator is configured such that a radius of the first control curve changes along a periphery of the first control curve . a) a water inlet ; b) a distributor chamber ; c) at least one first valve comprising i) a first valve aperture , and ii) a first sealing element ; i) a first valve aperture , and ii) a first sealing element ; d) an actuator ; and e) a jet former ; wherein the water inlet is connected, for conducting water, to the distributor chamber ; wherein the distributor chamber is connected via the first valve aperture and a first water path, for conducting water, to a first area of the jet former ; wherein the actuator is arranged and configured for carrying out an actuating movement; wherein the actuator is furthermore arranged and configured for guiding the first sealing element during the actuating movement such that the first sealing element switches the first valve aperture from an open state to a closed state and vice versa; wherein the first sealing element and the actuator each have a Shore hardness D ranging from 20 to 100 on surfaces which are contacted with one another during the actuating movement; characterized in that the first sealing element comprises a first pin, wherein the actuator comprises a first control curve , wherein the first pin is guided in the first control curve , and wherein the actuator is configured such that a radius of the first control curve changes along a periphery of the first control curve .
An X-Ray guided focused ultrasound (FUS) treatment apparatus, the apparatus comprising: an articulated arm having a base and a distal end, the articulated arm is attached at the base to a procedure platform ; a cradle affixed to the distal end of the arm; an aiming apparatus affixable within the cradle; and a FUS transducer removably affixable within the cradle and configured to transmit a FUS therapeutic energy beam to a treatment location, wherein the FUS transducer is connected to a controller to control the FUS therapeutic energy beam being transmitted by the FUS transducer; wherein the aiming apparatus comprises one of: a mock-up removably affixable within the cradle and replaceable by the FUS transducer, and at least one optical marker holder comprising two or more x-ray markers having different size and placed along a vertical axis of the at least one optical marker holder, or an x-ray aim placed in a socket of the FUS transducer and comprising at least two x-ray aiming markers of different size placed along a vertical axis of the FUS transducer, wherein a difference between the sizes of the at least two x-ray aiming markers is indicative of an alignment within an error limit of the apparatus. an articulated arm having a base and a distal end, the articulated arm is attached at the base to a procedure platform ; a cradle affixed to the distal end of the arm; an aiming apparatus affixable within the cradle; and a FUS transducer removably affixable within the cradle and configured to transmit a FUS therapeutic energy beam to a treatment location, wherein the FUS transducer is connected to a controller to control the FUS therapeutic energy beam being transmitted by the FUS transducer; wherein the aiming apparatus comprises one of: a mock-up removably affixable within the cradle and replaceable by the FUS transducer, and at least one optical marker holder comprising two or more x-ray markers having different size and placed along a vertical axis of the at least one optical marker holder, or an x-ray aim placed in a socket of the FUS transducer and comprising at least two x-ray aiming markers of different size placed along a vertical axis of the FUS transducer, wherein a difference between the sizes of the at least two x-ray aiming markers is indicative of an alignment within an error limit of the apparatus.