mhurhangee/ep-ind-claims huggingface dataset:
A vehicle front portion structure comprising: a non-contact charger disposed at a lower side of a vehicle front portion, configured to receive electric power transmitted from a non-contact power transmitting system, and carrying out charging of a battery that is installed in a vehicle; and a cross member (24, 26, 64, 65, 66) disposed at the vehicle front portion further toward a vehicle front side than the non-contact charger, and extending in a vehicle transverse direction, a bottom surface of the cross member (24, 26, 64, 65, 66) being disposed further toward a vehicle lower side than a bottom surface of the non-contact charger characterized in that it further comprises a suspension member (20, 60) having a pair of side rails (22, 62) that are provided at the vehicle front portion, each side rail (22, 62) being disposed with an interval between the pair of side rails (22, 62) in the vehicle transverse direction, and each side rail (22, 62) extending in a vehicle longitudinal direction, wherein the cross member (24, 64) is a front cross member (24, 64) that spans between the pair of side rails (22, 62) and that structures a portion of the suspension member (20, 60). a non-contact charger disposed at a lower side of a vehicle front portion, configured to receive electric power transmitted from a non-contact power transmitting system, and carrying out charging of a battery that is installed in a vehicle; and a cross member (24, 26, 64, 65, 66) disposed at the vehicle front portion further toward a vehicle front side than the non-contact charger, and extending in a vehicle transverse direction, a bottom surface of the cross member (24, 26, 64, 65, 66) being disposed further toward a vehicle lower side than a bottom surface of the non-contact charger characterized in that it further comprises a suspension member (20, 60) having a pair of side rails (22, 62) that are provided at the vehicle front portion, each side rail (22, 62) being disposed with an interval between the pair of side rails (22, 62) in the vehicle transverse direction, and each side rail (22, 62) extending in a vehicle longitudinal direction, wherein the cross member (24, 64) is a front cross member (24, 64) that spans between the pair of side rails (22, 62) and that structures a portion of the suspension member (20, 60).
A biopsy system, comprising: (a) a biopsy device, the biopsy device including: (i) a body, (ii) a needle extending distally from the body, wherein the needle includes a lateral aperture, and (iii) a cutter, wherein the cutter is movable relative to the lateral aperture of the needle to sever a tissue sample; (b) a control module, wherein the control module is operable to control at least one functional feature of the biopsy device; (c) an input assembly remotely located from and in communication with the 20 control module, wherein the input assembly includes a cable port; (d) a rotary drive cable, wherein the rotary drive cable is configured to be connected between the biopsy device and the input assembly cable port, the rotary drive cable actuating the cutter for cutting the tissue sample; and (e) a control cable coupled to the control module and the input 25 assembly, wherein the input assembly is separated from the control module by a length defined by the control cable, characterised in that the length defined by the control cable is sufficient to permit the input assembly to be located within an MRI imaging suite while the control module is located outside of the MRI imaging suite. (a) a biopsy device, the biopsy device including: (i) a body, (ii) a needle extending distally from the body, wherein the needle includes a lateral aperture, and (iii) a cutter, wherein the cutter is movable relative to the lateral aperture of the needle to sever a tissue sample; (i) a body, (ii) a needle extending distally from the body, wherein the needle includes a lateral aperture, and (iii) a cutter, wherein the cutter is movable relative to the lateral aperture of the needle to sever a tissue sample; (b) a control module, wherein the control module is operable to control at least one functional feature of the biopsy device; (c) an input assembly remotely located from and in communication with the 20 control module, wherein the input assembly includes a cable port; (d) a rotary drive cable, wherein the rotary drive cable is configured to be connected between the biopsy device and the input assembly cable port, the rotary drive cable actuating the cutter for cutting the tissue sample; and (e) a control cable coupled to the control module and the input 25 assembly, wherein the input assembly is separated from the control module by a length defined by the control cable,
A method for promoting in plants which are in a state without disease at least one plant growth effect selected from the group consisting of a greener leaf color, an increase in plant height, an increased shoot growth, an improved plant vigour, and a yield improvement, comprising applying to said plants, to the seeds from which they grow or to the locus in which they grow, a non-phytotoxic, effective plant growth promoting amount of a compound selected from the group consisting of: - N-cyclopropyl-3-(difluoromethyl)-5-fluoro-N-(2-isopropylbenzyl)-1-methyl-1H-pyrazole-4-carboxamide; - N-(5-chloro-2-isopropylbenzyl)-N-cyclopropyl-3-(difluoromethyl)-5-fluoro-1-methyl-1H-pyrazole-4-carboxamide; - N-cyclopropyl-3-(difluoromethyl)-5-fluoro-N-(5-fluoro-2-isopropylbenzyl)-1-methyl-1H-pyrazole-4-carboxamide; - N-cyclopropyl-3-(difluoromethyl)-5-fluoro-N-(2-fluoro-6-isopropylbenzyl)-1-methyl-1H-pyrazole-4-carboxamide; - N-cyclopropyl-3-(difluoromethyl)-5-fluoro-N-(2-isopropyl-5-methylbenzyl)-1-methyl-1H-pyrazole-4-carboxamide; and - N-(2-tert-butyl-5-methylbenzyl)-N-cyclopropyl-3-(difluoromethyl)-5-fluoro-1-methyl-1H-pyrazole-4-carboxamide; or an agrochemically acceptable salt thereof, wherein the compound is applied to said plants or the locus in which they grow at an application rate of from 0.005 kg/ha to 0.5 kg/ha, or as seed treatment at an application rate of from 0.001 to 250 g/kg of seeds. - N-cyclopropyl-3-(difluoromethyl)-5-fluoro-N-(2-isopropylbenzyl)-1-methyl-1H-pyrazole-4-carboxamide; - N-(5-chloro-2-isopropylbenzyl)-N-cyclopropyl-3-(difluoromethyl)-5-fluoro-1-methyl-1H-pyrazole-4-carboxamide; - N-cyclopropyl-3-(difluoromethyl)-5-fluoro-N-(5-fluoro-2-isopropylbenzyl)-1-methyl-1H-pyrazole-4-carboxamide; - N-cyclopropyl-3-(difluoromethyl)-5-fluoro-N-(2-fluoro-6-isopropylbenzyl)-1-methyl-1H-pyrazole-4-carboxamide; - N-cyclopropyl-3-(difluoromethyl)-5-fluoro-N-(2-isopropyl-5-methylbenzyl)-1-methyl-1H-pyrazole-4-carboxamide; and - N-(2-tert-butyl-5-methylbenzyl)-N-cyclopropyl-3-(difluoromethyl)-5-fluoro-1-methyl-1H-pyrazole-4-carboxamide;
An orthopedic device for implantation into bone tissue comprising: a bone fixation member having a core; and an outer polymeric body surrounding at least a portion of the core; the outer polymeric body including: an inner portion; an outer portion further defining a porous bone contacting surface adapted for bone tissue ingrowth, wherein the outer portion has a greater porosity than the inner portion; characterised in that an intermediate portion is positioned between the inner portion and the outer portion, wherein the intermediate portion includes a first region and a second region, and wherein the first region is positioned between the inner portion and the second region and has a greater porosity than the inner portion and the second region. a bone fixation member having a core; and an outer polymeric body surrounding at least a portion of the core; the outer polymeric body including: an inner portion; an outer portion further defining a porous bone contacting surface adapted for bone tissue ingrowth, wherein the outer portion has a greater porosity than the inner portion; characterised in that an intermediate portion is positioned between the inner portion and the outer portion, wherein the intermediate portion includes a first region and a second region, and wherein the first region is positioned between the inner portion and the second region and has a greater porosity than the inner portion and the second region. an inner portion; an outer portion further defining a porous bone contacting surface adapted for bone tissue ingrowth, wherein the outer portion has a greater porosity than the inner portion; characterised in that an intermediate portion is positioned between the inner portion and the outer portion, wherein the intermediate portion includes a first region and a second region, and wherein the first region is positioned between the inner portion and the second region and has a greater porosity than the inner portion and the second region.
An arrangement comprising a closing element and at least two differently dimensioned pipe sockets (2, 3) exhibiting different outer diameters and/or inner diameters, wherein the closing element comprises an insertion section insertable into the first pipe socket, a mounting section mountable on the second pipe socket, and at least one support section which supports an outer circumference of the first pipe socket connected into the closing element or an inner circumference of the second pipe socket connected into the closing element; characterized in that the support section can positively fix a radial projection of the first pipe socket and/or a radial projection of the second pipe socket, wherein the radial projection (7, 8) is configured as a protrusion on the inner circumference or on the outer circumference of the pipe socket (2, 3).
A hybrid vehicle comprising: an engine, a rotating electric machine capable of controlling a revolution speed of the engine, and a control device configured to control ignition timing for startup of the engine, wherein the control device modifies the ignition timing for startup of the engine depending on whether or not the revolution speed of the engine is controlled by the rotating electric machine, and a case where the revolution speed of the engine is controlled by the rotating electric machine corresponds to a state where load is applied to the engine from the rotating electric machine, such that the revolution speed of the engine is maintained at a predetermined revolution speed by torque of the rotating electric machine, and a case where the revolution speed of the engine is not controlled by the rotating electric machine corresponds to a state where load is not applied to the engine from the rotating electric machine, and the revolution speed of the engine is not maintained at the predetermined revolution speed by torque of the rotating electric machine. an engine, a rotating electric machine capable of controlling a revolution speed of the engine, and a control device configured to control ignition timing for startup of the engine, wherein
An enclosure for receiving soil and/or compost material, being composed of an arbitrary number of one-piece and mutually joinable plate elements, wherein each plate element, on sides pairwise facing each other, has a series of formations and recesses corresponding thereto, wherein the formations of a first plate element are connectable to the recesses of a second plate element without any additional connecting element, wherein the formations are a series of hooks, and the recesses are a series of webs for hooking in the hooks, characterized in that in the area of the hooks, a stopping means is provided overlapping a further plate element hooked into at least one hollow profile via the webs and fixing the connected plate elements in a fixed angular position, wherein the stopping means is composed of a stopping claw overlapping a flank of the hollow profile and a stopping claw resting against a flank of the hollow profile in an end position.
A mobile station for communicating with a base station of a wireless communication system, the mobile station comprising: means for generating a first signal based on a first Zadoff-Chu sequence and a second signal based on a second Zadoff-Chu sequence; and signal sending means for sending, on a first cell, the first signal in a first block of a subframe and the second signal in a second block of the subframe, wherein a first value of a parameter for the first Zadoff-Chu sequence is different from a second value of the parameter for the second Zadoff-Chu sequence, wherein the first and second values are based on a cell index and wherein the first Zadoff-Chu sequence and the second Zadoff-Chu sequence are represented by a formula: C_k(n)=exp[-(j2πk/N) (n(n+1)/2+qn)], wherein n=0, 1,..., N-1, and q is an arbitrary integer, N is a sequence length and k is the parameter. means for generating a first signal based on a first Zadoff-Chu sequence and a second signal based on a second Zadoff-Chu sequence; and signal sending means for sending, on a first cell, the first signal in a first block of a subframe and the second signal in a second block of the subframe, wherein a first value of a parameter for the first Zadoff-Chu sequence is different from a second value of the parameter for the second Zadoff-Chu sequence, wherein the first and second values are based on a cell index and wherein the first Zadoff-Chu sequence and the second Zadoff-Chu sequence are represented by a formula: C_k(n)=exp[-(j2πk/N) (n(n+1)/2+qn)], wherein n=0, 1,..., N-1, and q is an arbitrary integer, N is a sequence length and k is the parameter.
A rotorcraft with a fuselage comprising a nose and with at least one main rotor suitable for rotating around a rotor mast axis, said rotorcraft assuming varying pitch attitudes in operation, and said fuselage being equipped with at least one passive wing-type aerodynamic device (5, 6) that is adapted for generating independently of said varying pitch attitudes a lift force acting on said fuselage, said lift force being oriented perpendicular to an air flow that is directed in operation of said rotorcraft against said passive wing-type aerodynamic device (5, 6) wherein said passive wing-type aerodynamic device (5, 6) comprises at least one wing element (5, 6) that is rotatable relative to said fuselage around an associated rotation axis, said at least one wing element (5, 6) being adapted to self-adjust its rotational orientation relative to said fuselage by rotating in reaction to said air flow, characterized in that the at least one wing element (5, 6) is positioned longitudinally closer to the nose of the fuselage than the rotor mast axis.
A memory device (200; 320; 420; 620) comprising: a clock receiver (230; 421) configured to receive, from a memory controller (100; 610), a write clock that is used to receive write data during a data write operation; a duty monitor (220; 322; 425; 624) configured to generate first monitoring information (D_Info; D_Info_W) by monitoring a duty of the write clock; and a first duty adjuster (321; 422; DCA_1) configured to adjust the duty of the write clock in response to a duty control signal (Ctrl; Ctrl W) and output an adjusted write clock, characterised in that the memory device (200; 320; 420; 620) provides the first monitoring information (D_Info; D_Info_W) to the memory controller (100; 310; 410; 610), and receives the duty control signal (Ctrl; Ctrl W), generated using the first monitoring information (D_Info; D_Info_W), from the memory controller (100; 310; 410; 610); the duty control signal (Ctrl; Ctrl W) being provided to the first duty adjuster, and the first duty adjuster selectively performing a duty adjust operation in response to the duty control signal received from the memory controller. a clock receiver (230; 421) configured to receive, from a memory controller (100; 610), a write clock that is used to receive write data during a data write operation; a duty monitor (220; 322; 425; 624) configured to generate first monitoring information (D_Info; D_Info_W) by monitoring a duty of the write clock; and a first duty adjuster (321; 422; DCA_1) configured to adjust the duty of the write clock in response to a duty control signal (Ctrl; Ctrl W) and output an adjusted write clock, characterised in that the memory device (200; 320; 420; 620) provides the first monitoring information (D_Info; D_Info_W) to the memory controller (100; 310; 410; 610), and receives the duty control signal (Ctrl; Ctrl W), generated using the first monitoring information (D_Info; D_Info_W), from the memory controller (100; 310; 410; 610); the duty control signal (Ctrl; Ctrl W) being provided to the first duty adjuster, and the first duty adjuster selectively performing a duty adjust operation in response to the duty control signal received from the memory controller.
A method for producing a mixed sulfonic acid anhydride of the general formula: wherein R 1 is a heteroaryl group which may have a substituent; and R 3 is a perfluoroalkyl group, comprising: reacting a sulfonic acid compound of the general formula: wherein R 1 is as defined above, with a sulfonylating agent selected from the group consisting of a perfluoroalkyl sulfonic acid anhydride or a perfluoroalkyl sulfonic acid halide. R 1 is a heteroaryl group which may have a substituent; and R 3 is a perfluoroalkyl group,
A method for analysis of plurality of network transactions in a communication network consisting of a first set of nodes comprising monitoring a plurality of sub-transactions constituting said network transactions, the method characterized by comprising processor implemented steps of: a. classifying a second set of nodes hosting said sub-transactions into a first set of layers, each layer containing a third set of nodes with similar functionalities; b. capturing a network transaction data at each node of each classified first set of layer and storing it in a repository in the network in test environment; c. generating and storing a plurality of transaction flow signatures depicting hierarchical flow of said network sub-transactions amongst said classified layers and associated performance at each node based on captured network transaction data in test environment; d. capturing a network transaction data of at least one network transaction in the network in a real time environment from the first set of layers facilitating at-least one sub-transaction of said network transaction; e. identifying at least one transaction flow signature from the stored transaction flow signatures matching the network transaction by correlating network parameters and transaction parameters; and f. generating a diagnostic report indicating layer-wise nodal anomalies and associated performance constraints in the communication network for the network transaction analyzed through identified transaction flow signature using metrics comparisons for multiple layers, multiple sessions and multiple individual layers a. classifying a second set of nodes hosting said sub-transactions into a first set of layers, each layer containing a third set of nodes with similar functionalities; b. capturing a network transaction data at each node of each classified first set of layer and storing it in a repository in the network in test environment; c. generating and storing a plurality of transaction flow signatures depicting hierarchical flow of said network sub-transactions amongst said classified layers and associated performance at each node based on captured network transaction data in test environment; d. capturing a network transaction data of at least one network transaction in the network in a real time environment from the first set of layers facilitating at-least one sub-transaction of said network transaction; e. identifying at least one transaction flow signature from the stored transaction flow signatures matching the network transaction by correlating network parameters and transaction parameters; and f. generating a diagnostic report indicating layer-wise nodal anomalies and associated performance constraints in the communication network for the network transaction analyzed through identified transaction flow signature using metrics comparisons for multiple layers, multiple sessions and multiple individual layers
A method of manufacturing a MEMS-based sensor, characterized in that it comprises the following steps: - providing a substrate; - etching from a front surface of the substrate to form a shallow channel and a support beam on a front surface of the substrate; - forming a first epitaxial layer on the front surface of the substrate to seal the shallow channel; - etching through the first epitaxial layer to form a suspended meshed structure beneath the first epitaxial layer; - forming a second epitaxial layer on the first epitaxial layer; - forming a circuit layer on the second epitaxial layer; - etching from the back surface of the substrate to form a deep channel on a position of a back surface of the substrate corresponding to the shallow channel, such that the shallow channel is in communication with the deep channel, the shallow channel and the deep channel defining an outer portion and an inner portion of the substrate, the inner portion being connected to the outer portion via the support beam; - removing the support beam to cause the inner portion of the substrate to fall off, and - etching the second epitaxial layer according to a required thickness. - providing a substrate; - etching from a front surface of the substrate to form a shallow channel and a support beam on a front surface of the substrate; - forming a first epitaxial layer on the front surface of the substrate to seal the shallow channel; - etching through the first epitaxial layer to form a suspended meshed structure beneath the first epitaxial layer; - forming a second epitaxial layer on the first epitaxial layer; - forming a circuit layer on the second epitaxial layer; - etching from the back surface of the substrate to form a deep channel on a position of a back surface of the substrate corresponding to the shallow channel, such that the shallow channel is in communication with the deep channel, the shallow channel and the deep channel defining an outer portion and an inner portion of the substrate, the inner portion being connected to the outer portion via the support beam; - removing the support beam to cause the inner portion of the substrate to fall off, and - etching the second epitaxial layer according to a required thickness.
An optical metrology and image correction device comprising: a light source adapted to emit a beam of light; and a mask configured and disposed to receive the beam of light emitted from the light source, the mask being rotatably disposed to rotate from a first position to a second position, characterised in that the light source is a point size light source, said mask is a translucent mask, wherein the beam of light is received by the translucent mask in a direction substantially orthogonal to the translucent mask in the first position and wherein the beam of light is received by the translucent mask at an angle offset with respect to the translucent mask in the second position, and wherein the beam of light passes through the mask to project an image on a surface of a target object. a light source adapted to emit a beam of light; and a mask configured and disposed to receive the beam of light emitted from the light source, the mask being rotatably disposed to rotate from a first position to a second position, characterised in that the light source is a point size light source, said mask is a translucent mask, wherein the beam of light is received by the translucent mask in a direction substantially orthogonal to the translucent mask in the first position and wherein the beam of light is received by the translucent mask at an angle offset with respect to the translucent mask in the second position, and wherein the beam of light passes through the mask to project an image on a surface of a target object.