mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for scaling at least one of a first three-dimensional, 3D, model or a second 3D model, wherein each of the first 3D model and the second 3D model is based on corresponding model data, by processing at least part of the model data corresponding to at least one of the first 3D model or the second 3D model, wherein the first 3D model represents a first object, and wherein the second 3D model represents a second object, the method comprising: measuring, via a processor of a computing device in conjunction with a rangefinder, a distance of the first object from the computing device; capturing, via the processor, an image of the first object; querying, via the processor, a database of pixel density data for a pixel density at the measured distance of the first object from the computing device; detecting, via the processor, a first feature of the first object; determining, via the processor, a number of pixels associated with the detected first feature of the first object; determining, via the processor, a size associated with the detected first feature of the first object, wherein determining the size comprises determining a quotient resulting from dividing the number of pixels associated with the detected first feature of the first object by the queried pixel density at the measured distance of the first object; scaling, via the processor, at least one of the first 3D model or the second 3D model, based on the determined size, by processing at least part of the corresponding model data; and mating, via the processor, the second 3D model with the first 3D model, based on a result of the scaling. measuring, via a processor of a computing device in conjunction with a rangefinder, a distance of the first object from the computing device; capturing, via the processor, an image of the first object; querying, via the processor, a database of pixel density data for a pixel density at the measured distance of the first object from the computing device; detecting, via the processor, a first feature of the first object; determining, via the processor, a number of pixels associated with the detected first feature of the first object; determining, via the processor, a size associated with the detected first feature of the first object, wherein determining the size comprises determining a quotient resulting from dividing the number of pixels associated with the detected first feature of the first object by the queried pixel density at the measured distance of the first object; scaling, via the processor, at least one of the first 3D model or the second 3D model, based on the determined size, by processing at least part of the corresponding model data; and mating, via the processor, the second 3D model with the first 3D model, based on a result of the scaling.
Air duct for installation in a vehicle for passenger transport, with a main duct for conducting air in a main direction and with a deflection apparatus which is connected to the main duct for deflecting air which flows in from the main duct in a feed direction which is different from the main direction, characterized in that the air duct has a plurality of prefabricated duct modules which are produced from a thermoplastic in a twin sheet method and have main duct sections, and the duct modules can be connected directly to one another in the main flow direction, the deflection device being integrated into the duct module in the case of each duct module and having an orifice piece which is attached laterally to a main duct section of the duct module.
A model comprising: a first part including a rotational shaft portion; and a second part including a shaft supporting portion into which the rotational shaft portion is inserted; wherein the rotational shaft portion, when inserted into the shaft supporting portion, is supported by the shaft supporting portion in such a manner as to be rotatable and to be movable in an axial direction of the rotational shaft portion such that the second part is connected to the first part in such a manner as to be rotatable relative to the first part; wherein one of the first part and the second part includes a projecting portion while the other includes a recessed portion into which the projecting portion may be fitted when the rotational shaft portion is inserted into the shaft supporting portion such that the rotation of the second part relative to the first part is stopped when the projecting portion is fitted into the recessed portion; and wherein the rotational shaft portion and the shaft supporting portion include respective locking members (121, 122) that are engageable with each other, the locking members limiting the movement of the rotational shaft portion in the axial direction within a range between a first position where the projecting portion is fitted in the recessed portion and a second position where the projecting portion is out of the recessed portion; characterised in that the projecting portion is provided at a base of the rotational shaft portion and has a polygonal shape that is rotationally symmetrical about a center axis of the rotational shaft portion, and wherein the recessed portion is provided at an end of an opening provided in the shaft supporting portion and has the same polygonal shape as the projecting portion. a first part including a rotational shaft portion; and a second part including a shaft supporting portion into which the rotational shaft portion is inserted;
Weldable strain sensor with the following features: a. a strain sensor having two end portions, which are coupled in signal communication with signal lines (3a, 3b) for conducting the measurement signal, b. a sensor carrier which extends in the direction of the strain sensor and is firmly connected thereto and c. a protective cover which is made of a solid plastic and integrally surrounds the strain sensor and the end portions of the signal lines (3a, 3b) and which is firmly connected to the sensor carrier, wherein - the protective cover in the region of the strain sensor is configured narrow and flat and in the region of the coupling points of the signal lines (3a, 3b) with the strain sensor is at least twice as wide and at least twice as high as in the region of the strain sensor, and d. the end portions of the sensor carrier have slots, so that tongues are formed, with the tongue ends being directed in opposition to each other. a. a strain sensor having two end portions, which are coupled in signal communication with signal lines (3a, 3b) for conducting the measurement signal, b. a sensor carrier which extends in the direction of the strain sensor and is firmly connected thereto and c. a protective cover which is made of a solid plastic and integrally surrounds the strain sensor and the end portions of the signal lines (3a, 3b) and which is firmly connected to the sensor carrier, wherein - the protective cover in the region of the strain sensor is configured narrow and flat and in the region of the coupling points of the signal lines (3a, 3b) with the strain sensor is at least twice as wide and at least twice as high as in the region of the strain sensor, and - the protective cover in the region of the strain sensor is configured narrow and flat and in the region of the coupling points of the signal lines (3a, 3b) with the strain sensor is at least twice as wide and at least twice as high as in the region of the strain sensor, and d. the end portions of the sensor carrier have slots, so that tongues are formed, with the tongue ends being directed in opposition to each other.
A method for communicating data/control information between a User Equipment, UE, and a base station in a mobile communication system, the method comprising, at the UE: receiving downlink data from the base station; when the UE has no uplink data to be transmitted, transmitting control information to the base station through one or more radio resources that are allocated for the transmission of the control information, the control information including ACK/NACK information for the downlink data, the control information further including an indication that radio resources are not requested for the uplink data transmission. receiving downlink data from the base station; when the UE has no uplink data to be transmitted, transmitting control information to the base station through one or more radio resources that are allocated for the transmission of the control information, the control information including ACK/NACK information for the downlink data, the control information further including an indication that radio resources are not requested for the uplink data transmission.
An apparatus comprising: a magneto-resistive, MR, element having a resistance that varies with its magnetization; means for applying a static current to the MR element; means for sensing the resistance of the MR element whilst the static current is applied to the MR element; and means for generating a first plurality of random values by sampling the sensed resistance of the MR element. a magneto-resistive, MR, element having a resistance that varies with its magnetization; means for applying a static current to the MR element; means for sensing the resistance of the MR element whilst the static current is applied to the MR element; and means for generating a first plurality of random values by sampling the sensed resistance of the MR element.
Electrical current transducer of a closed-loop type for measuring a primary current flowing in a primary conductor, comprising a fluxgate measuring head and an electronic circuit including a microprocessor for digital signal processing, the measuring head including a secondary coil, a fluxgate detector comprising an excitation coil and a magnetic material core, and optionally a magnetic shield surrounding the fluxgate detector, the electronic circuit comprising an excitation coil drive circuit configured to generate an alternating excitation voltage to supply the excitation coil with an alternating excitation current ( I fx), the secondary coil connected in a feedback loop of the electronic circuit to the excitation coil drive circuit, characterized in that the electronic circuit further comprises a ripple compensation circuit configured to compensate for a ripple signal generated by the alternating excitation voltage by injecting a ripple compensation signal into a coil of the measuring head.
A drill string, comprising: a first member having a first end and a second end; a second member having a first end and a second end, the second member connected to the first member forming with a passage between the first end of the first member and the second end of the second member; and a communication device in the passage between the first member and the second member, the communication device including a conduit configured to allow passage of a conductor from the first member to provide direct signal communication between the first member and the second member; the drill string characterised in that: the first end of the first member includes a first cavity, the second end of the second member includes a second cavity and the communication device is placed in the first cavity and the second cavity; and the communication device includes a first section in the first cavity, a second section in the second cavity and a third section (412c, 414c) between the first section and the second section, and wherein the conduit is located outside the outer diameters of the first section and the second section and the conduit runs through the third section (412c, 414c) outside the first section and the second section. a first member having a first end and a second end; a second member having a first end and a second end, the second member connected to the first member forming with a passage between the first end of the first member and the second end of the second member; and a communication device in the passage between the first member and the second member, the communication device including a conduit configured to allow passage of a conductor from the first member to provide direct signal communication between the first member and the second member; the drill string characterised in that: the first end of the first member includes a first cavity, the second end of the second member includes a second cavity and the communication device is placed in the first cavity and the second cavity; and the communication device includes a first section in the first cavity, a second section in the second cavity and a third section (412c, 414c) between the first section and the second section, and wherein the conduit is located outside the outer diameters of the first section and the second section and the conduit runs through the third section (412c, 414c) outside the first section and the second section. the first end of the first member includes a first cavity, the second end of the second member includes a second cavity and the communication device is placed in the first cavity and the second cavity; and the communication device includes a first section in the first cavity, a second section in the second cavity and a third section (412c, 414c) between the first section and the second section, and wherein the conduit is located outside the outer diameters of the first section and the second section and the conduit runs through the third section (412c, 414c) outside the first section and the second section.
A method for determining the presence or absence of Salmonella in a sample, said method comprising: contacting a sample, said sample suspected of containing Salmonella, with (a) at least two Salmonella- specific amplification oligomers for amplifying a target region of a Salmonella target nucleic acid, wherein the at least two Salmonella- specific amplification oligomers comprise first and second oligomers respectively comprising target-hybridizing sequences corresponding to the nucleotide sequences of: (i) SEQ ID NO:1 and SEQ ID NO:2; (ii) SEQ ID NO:4 and SEQ ID NO:5; (iii) SEQ ID NO:8 and SEQ ID NO:9; (iv) SEQ ID NO:12 and SEQ ID NO: 13; (v) SEQ ID NO:16 and SEQ ID NO: 17; or (vi) SEQ ID NO:18 and SEQ ID NO:2; performing an in vitro nucleic acid amplification reaction, wherein any Salmonella target nucleic acid, if present in said sample, is used as a template for generating one or more amplification products corresponding to the Salmonella target regions; and determining the sequences of the one or more amplification products, or detecting the presence or absence of the one or more amplification products using a detection probe specific for the Salmonella target region, thereby determining the presence or absence of Salmonella in said sample. contacting a sample, said sample suspected of containing Salmonella, with (a) at least two Salmonella- specific amplification oligomers for amplifying a target region of a Salmonella target nucleic acid, wherein the at least two Salmonella- specific amplification oligomers comprise first and second oligomers respectively comprising target-hybridizing sequences corresponding to the nucleotide sequences of: (i) SEQ ID NO:1 and SEQ ID NO:2; (ii) SEQ ID NO:4 and SEQ ID NO:5; (iii) SEQ ID NO:8 and SEQ ID NO:9; (iv) SEQ ID NO:12 and SEQ ID NO: 13; (v) SEQ ID NO:16 and SEQ ID NO: 17; or (vi) SEQ ID NO:18 and SEQ ID NO:2; (a) at least two Salmonella- specific amplification oligomers for amplifying a target region of a Salmonella target nucleic acid, wherein the at least two Salmonella- specific amplification oligomers comprise first and second oligomers respectively comprising target-hybridizing sequences corresponding to the nucleotide sequences of: (i) SEQ ID NO:1 and SEQ ID NO:2; (ii) SEQ ID NO:4 and SEQ ID NO:5; (iii) SEQ ID NO:8 and SEQ ID NO:9; (iv) SEQ ID NO:12 and SEQ ID NO: 13; (v) SEQ ID NO:16 and SEQ ID NO: 17; or (vi) SEQ ID NO:18 and SEQ ID NO:2; (i) SEQ ID NO:1 and SEQ ID NO:2; (ii) SEQ ID NO:4 and SEQ ID NO:5; (iii) SEQ ID NO:8 and SEQ ID NO:9; (iv) SEQ ID NO:12 and SEQ ID NO: 13; (v) SEQ ID NO:16 and SEQ ID NO: 17; or (vi) SEQ ID NO:18 and SEQ ID NO:2; performing an in vitro nucleic acid amplification reaction, wherein any Salmonella target nucleic acid, if present in said sample, is used as a template for generating one or more amplification products corresponding to the Salmonella target regions; and determining the sequences of the one or more amplification products, or detecting the presence or absence of the one or more amplification products using a detection probe specific for the Salmonella target region, thereby determining the presence or absence of Salmonella in said sample.
A method for detecting the liquid level in each of a plurality of containers of liquids from a hematology instrument, said method comprising the steps of: (a) positioning a pair of spaced electrodes (E1;E2) within each of said containers from the hematology instrument; (b) selectively polling each of said pairs of electrodes (E1;E2) by applying a pulsed electrical signal between said selected pairs of electrodes (E1;E2); (c) monitoring the voltage between each of said selected electrode pairs (E1;E2) while said electrode pairs (E1;E2) are polled; (d) determining the liquid-level in each of said containers on the basis of a predetermined change in voltage across said selected electrode pairs (E1;E2), as caused by a liquid within the respective containers physically bridging, or non-bridging, said electrode pairs (E1;E2) as the liquid level changes within said containers, characterised in that: (e) said predetermined change in voltage is normalized for the liquid in each of said containers, for liquids of differing bulk electrical resistivities. (a) positioning a pair of spaced electrodes (E1;E2) within each of said containers from the hematology instrument; (b) selectively polling each of said pairs of electrodes (E1;E2) by applying a pulsed electrical signal between said selected pairs of electrodes (E1;E2); (c) monitoring the voltage between each of said selected electrode pairs (E1;E2) while said electrode pairs (E1;E2) are polled; (d) determining the liquid-level in each of said containers on the basis of a predetermined change in voltage across said selected electrode pairs (E1;E2), as caused by a liquid within the respective containers physically bridging, or non-bridging, said electrode pairs (E1;E2) as the liquid level changes within said containers, characterised in that: (e) said predetermined change in voltage is normalized for the liquid in each of said containers, for liquids of differing bulk electrical resistivities.
A thermoplastic composition comprising: isotactic polypropylene, optionally containing comonomer, with a melting point of at least 110°C and a polyamide; and constituting at least 70wt%; at least 2 wt% of a grafted functionalized propylene-based elastomer having isotactic crystallinity, a heat of fusion of less than 40 J/g, and a melting point of less than 110°C; and containing at least 0.25 wt% of MAH-derived units based on the total weight of; and optionally an ungrafted polyolefin having a melting point of less than 100°C, and combined being at least 8 wt%, the wt % of,, and being calculated on the basis of the total polymer weight. isotactic polypropylene, optionally containing comonomer, with a melting point of at least 110°C and a polyamide; and constituting at least 70wt%; at least 2 wt% of a grafted functionalized propylene-based elastomer having isotactic crystallinity, a heat of fusion of less than 40 J/g, and a melting point of less than 110°C; and containing at least 0.25 wt% of MAH-derived units based on the total weight of; and optionally an ungrafted polyolefin having a melting point of less than 100°C, and combined being at least 8 wt%, the wt % of,, and being calculated on the basis of the total polymer weight.
A construction machine having an operation device, such as a boom, an arm, or a bucket, working in an operation direction, and comprising a cabin, an upper frame structure_ for supporting the cabin, including a center frame having a lower plate fitted with a swing ring gear and a lateral plate vertically mounted on the lower plate and fitted with one of the_operation devices, a left frame mounted on the left side of the center frame as seen in the operation direction, having a side channel extended in a longitudinal direction of the center frame and a plurality of side frames for connecting the center frame with the side channel, the upper frame structure further comprising a cabin supporting structure for supporting a vertical load and a rearward load applied to the cabin; whereby the cabin supporting structure comprising: a first cabin supporting structure (140, 150), mounted on the lower plate of the center frame; and a second cabin supporting structure, mounted on one side of the side channel, for supporting an upper surface of the side channel; wherein the first cabin supporting structure (140, 150) which is disposed under the cabin comprises a transverse member formed of a flat plate which has a height similar to a horizontal surface of the side frame, and a vertical member is fixed to the lower plate of the center frame for supporting the transverse member, characterized in that the second cabin supporting structure comprises an angled sheet or cast member with a vertical portion fixed to an inner vertical surface of the side channel and a horizontal portion fixed to the bottom of the horizontal surface of the side channel to reinforce the strength of the horizontal surface, wherein the transverse member is spaced apart from a base plate of the cabin at a specified interval, for supporting the cabin upwardly when a load is applied to the cabin in a downward or forward direction. a first cabin supporting structure (140, 150), mounted on the lower plate of the center frame; and a second cabin supporting structure, mounted on one side of the side channel, for supporting an upper surface of the side channel; wherein the first cabin supporting structure (140, 150) which is disposed under the cabin comprises a transverse member formed of a flat plate which has a height similar to a horizontal surface of the side frame, and a vertical member is fixed to the lower plate of the center frame for supporting the transverse member, characterized in that the second cabin supporting structure comprises an angled sheet or cast member with a vertical portion fixed to an inner vertical surface of the side channel and a horizontal portion fixed to the bottom of the horizontal surface of the side channel to reinforce the strength of the horizontal surface, wherein the transverse member is spaced apart from a base plate of the cabin at a specified interval, for supporting the cabin upwardly when a load is applied to the cabin in a downward or forward direction.