mhurhangee/ep-ind-claims huggingface dataset:
Waste packing system comprising a container for storing a plurality of waste drums, wherein the container comprises a loading space for accommodating said waste drums, and a loading opening for receiving said waste drums, the system further comprises at least one waste drum carrying device removably arranged in said loading space for holding said waste drums, wherein said waste drum carrying device is laterally accessible for loading said waste drums onto said waste drum carrying device, and wherein said waste drum carrying device comprises means for fixating said waste drums to said waste drum carrying device, characterized in that said waste drum carrying device comprises a platform and a support structure attached to said platform, wherein said support structure comprises a plurality of interconnected walls, said interconnected walls and platform defining laterally accessible pockets, wherein each pocket is adapted for accommodating one of said drums, and in that said waste drum carrying device is laterally immovably placeable inside said loading space.
Field device used in measuring and automation engineering, comprising: a transducer, which is designed to measure at least a measured variable and to output at least a first measured value representing the measured variable; a display unit, which is designed to display measuring and/or operating parameters; an electronic measuring/operating circuit, which is designed to operate the transducer and/or the display unit, and to calculate a second measured value derived from the first measured value; wherein the field device particularly has a housing with a housing wall and a housing chamber formed by the housing wall, wherein at least the measuring/operating circuit is arranged in the housing, wherein the display unit has a screen, characterized in that the screen has a first zone with a first display technology and a second zone with a second display technology, wherein the first zone is reflective or transflective, and wherein the second zone is transmissive. a transducer, which is designed to measure at least a measured variable and to output at least a first measured value representing the measured variable; a display unit, which is designed to display measuring and/or operating parameters; an electronic measuring/operating circuit, which is designed to operate the transducer and/or the display unit, and to calculate a second measured value derived from the first measured value; wherein the field device particularly has a housing with a housing wall and a housing chamber formed by the housing wall, wherein at least the measuring/operating circuit is arranged in the housing, wherein the display unit has a screen, characterized in that the screen has a first zone with a first display technology and a second zone with a second display technology, wherein the first zone is reflective or transflective, and wherein the second zone is transmissive.
Method for feedback control of a switching power electronic converter system with semiconductor switches, which is describable by a system of differential equations in the form of a state space model according to dx/dt = A x(t) + B u(t), where x(t) is a vector with one or more state variables (x i), A is the system matrix, B is the control matrix and u(t) is a vector having at least one input variable (u i) of the system, wherein at least one of the state variables (x i) is multiplicatively linked to a time-varying variable system parameter (ρ(t)) and wherein at least one of the state variables (x i) or at least one of the output variables (y i) is fed with negative feedback to at least one of the input variables (u i) via a regulator with a regulator matrix K, characterized in that at least one of the state variables (x i) or output variables (y i) coupled back by the regulator is multiplied by the variable system parameter (ρ(t)) contained in an element of the regulator matrix K or by a value (ρ TP (t)), averaged in portions, of the variable system parameter (ρ(t)) while maintaining the time variance of the resultant system matrix (A r) of the fed-back overall system in such a way that the signs of the eigenvalues (λ i), containing the variable system parameter (ρ(t)), of the resultant system matrix (A r) become independent of the sign of the variable system parameter (ρ(t)).
A method for the optimized allocation of a communication resource enabling the transmission of messages from first units towards a second unit, each of the first units having embedded applications and a terminal for communicating with the second unit, a message being associated with a deadline requirement and a size, the method comprising the following stapes: - reception, by the terminal, of messages originating from the embedded applications and for each message, the storage of a time reference indicating the date of reception by the terminal of the message, - transmission, by the terminal, of a capacity request for at least one message, the request indicating the size of the message, the deadline requirement associated with the message and the temporal reference of the message, - reception, by a control center of the communication resource, of the capacity request, - allocation of the communication resource to the terminals of the first units, by performing a calculation of a centralized scheduling of messages by taking into account the temporal reference and the deadline requirement of messages, - broadcasting to the terminals of the first units, of an allocation plan determined from the calculated scheduling, and - calculation of a minimum time of transmission of a message by the terminal on the basis of the size of the message, the calculation of the scheduling of messages also taking into account the minimum transmission time of messages. - reception, by the terminal, of messages originating from the embedded applications and for each message, the storage of a time reference indicating the date of reception by the terminal of the message, - transmission, by the terminal, of a capacity request for at least one message, the request indicating the size of the message, the deadline requirement associated with the message and the temporal reference of the message, - reception, by a control center of the communication resource, of the capacity request, - allocation of the communication resource to the terminals of the first units, by performing a calculation of a centralized scheduling of messages by taking into account the temporal reference and the deadline requirement of messages, - broadcasting to the terminals of the first units, of an allocation plan determined from the calculated scheduling, and - calculation of a minimum time of transmission of a message by the terminal on the basis of the size of the message, the calculation of the scheduling of messages also taking into account the minimum transmission time of messages.
A rotor blade of a wind energy installation, the rotor blade having a longitudinal extent which extends from a rotor blade root to a rotor blade tip, wherein the rotor blade has a cross-sectional profile (5, 8, 9) which is variable in the longitudinal direction and which has a profile leading edge and a profile trailing edge which are connected to one another via a suction side and a pressure side of the cross-sectional profile (5, 8, 9), wherein, in a region close to the rotor blade root, the rotor blade has a round or an oval profile which, in the direction towards the rotor blade tip, initially changes, in a transition region, into a blunt aerodynamic cross-sectional profile with a blunt trailing edge and, further in the direction towards the rotor blade tip, subsequently changes into an aerodynamic solid profile, in which the profiles on the suction side and on the pressure side meet at an acute angle at the trailing edge, characterised in that, in at least some portions of the cylindrical or oval region close to the blade root, a stall induction device which extends substantially in the longitudinal direction of the rotor blade is arranged on the pressure side of the rotor blade, which stall induction device is continued, at least in some portions of the transition region, at or in the region of the blunt trailing edge of the pressure side of the blunt aerodynamic cross-sectional profile, wherein the stall induction device is constructed in the shape of an "L"; and wherein, in the transition region, at least one series of vortex generators and / or vortex edges are arranged on the suction side of the rotor blade.
Motor vehicle control device including: - at least one force sensor having at least one surface sensitive to a pressing pressure (4a, 4b, 4c), - a frontage comprising at least one deformable area (3a, 3b, 3c) linked with said sensitive surface (4a, 4b, 4c) of said force sensor, the device comprising a pre-stressing means arranged on said sensitive surface (4a, 4b, 4c) to exert a pre-stressing pressing pressure (Ps) on said sensitive surface (4a, 4b, 4c) in order to shift the operating area of the force sensor, characterized in that said pre-stressing means comprises at least one pre-stressing element (5a, 5b, 5c, 5d) made from flexible material, which is inserted between said sensitive surface (4a, 4b, 4c) of the force sensor and the frontage. - at least one force sensor having at least one surface sensitive to a pressing pressure (4a, 4b, 4c), - a frontage comprising at least one deformable area (3a, 3b, 3c) linked with said sensitive surface (4a, 4b, 4c) of said force sensor,
A method for printing a part with a three dimensional printer, the method comprising: receiving toolpath instructions having a plurality of single layer toolpaths encoded with first and second degrees of freedom, supplying a strand reinforced composite filament having reinforcing strands embedded in a flowable matrix material; depositing consolidated composite swaths by: controlling a print head to output the strand reinforced composite filament with the reinforcing strands oriented parallel to a trajectory of the print head; controlling the print head to iron the strand reinforced composite filament to form consolidated composite swaths having reinforcing strands spread out against a surface (14 or 2d); depositing a first consolidated composite swath (2c-1) according to a first single layer toolpath within a first layer (LA n); depositing a second consolidated composite swath (2c-2) according to a second single layer toolpath within the same first layer (LA n), the second consolidated composite swath (2c-2) having a crossing point with the first consolidated composite swath (2c-1) within the same first layer (LA n); and ironing the second consolidated composite swath (2c-2) to spread against the first consolidated composite swath (2c-1). receiving toolpath instructions having a plurality of single layer toolpaths encoded with first and second degrees of freedom, supplying a strand reinforced composite filament having reinforcing strands embedded in a flowable matrix material; depositing consolidated composite swaths by: controlling a print head to output the strand reinforced composite filament with the reinforcing strands oriented parallel to a trajectory of the print head; controlling the print head to iron the strand reinforced composite filament to form consolidated composite swaths having reinforcing strands spread out against a surface (14 or 2d); controlling a print head to output the strand reinforced composite filament with the reinforcing strands oriented parallel to a trajectory of the print head; controlling the print head to iron the strand reinforced composite filament to form consolidated composite swaths having reinforcing strands spread out against a surface (14 or 2d); depositing a first consolidated composite swath (2c-1) according to a first single layer toolpath within a first layer (LA n); depositing a second consolidated composite swath (2c-2) according to a second single layer toolpath within the same first layer (LA n), the second consolidated composite swath (2c-2) having a crossing point with the first consolidated composite swath (2c-1) within the same first layer (LA n); and ironing the second consolidated composite swath (2c-2) to spread against the first consolidated composite swath (2c-1).
A vibration-absorbing member, characterized by including a rubber composition, a metal, and an adhesive as constituent elements, wherein the rubber composition comprises a rubber component containing, as a main component, natural rubber or a blend of natural rubber and a diene synthetic rubber, a bismaleimide, and a dithiocarbamic acid metal salt having a benzene ring.
An indexing mechanism for a counter, comprising a counting component (20,620), a locking element (46,646) for resisting movement of the counting component and a distinct driving element (70,670) for driving movement of the counting component, the locking and driving elements having an initial position in which the locking element (46,646) is engaged with the counting component (20,620), characterized in that the locking and driving elements being actuated by movement of a common element (16,666) to move the locking element (46,646) out of engagement with the counting component (20, 620) and to move the driving element (70,670), wherein the driving element (70, 670) applies a motive force to the counting component (20,620) before the locking element (46,646) fully disengages from the counting component (20,620).
A wellbore packer, comprising: a mandrel; a radially expandable packing element carried about said mandrel; a depletive shroud disposed about said packing element: and an actuation mechanism operatively coupled to said packing element so as to selectively radially expand said packing element, wherein said depletive shroud covers said actuation mechanism. a mandrel; a radially expandable packing element carried about said mandrel; a depletive shroud disposed about said packing element: and an actuation mechanism operatively coupled to said packing element so as to selectively radially expand said packing element, wherein said depletive shroud covers said actuation mechanism.
A calculation system for a plaque stability index based on a medical image sequence, wherein the system comprises: an image acquisition module, mainly configured to acquire an image and generate a dynamic image sequence; an image receiving module, configured to receive the image sequence generated by the image acquisition module and transmit the image sequence to an image processing module; the image processing module, configured to process the received image sequence, wherein the processing comprises segmentation and registration of a lumen contour; the segmentation of the lumen contour comprises segmentation of a normal lumen and a stenotic lumen, and the registration of a lumen specifically refers to performing registration according to a feature space of the same vascular segment at different moments to generate a displacement field function; and a finite element calculation module, configured to perform finite element calculation on a two-dimensional vascular lumen by utilizing the above displacement field function and perform calculation by selecting a vascular lumen at a certain moment as an initial state to obtain a time-dependent parameter and cloud picture comprising a function that a lumen diameter sequence or area is changed with time, and a linear strain of the lumen contour. an image acquisition module, mainly configured to acquire an image and generate a dynamic image sequence; an image receiving module, configured to receive the image sequence generated by the image acquisition module and transmit the image sequence to an image processing module; the image processing module, configured to process the received image sequence, wherein the processing comprises segmentation and registration of a lumen contour; the segmentation of the lumen contour comprises segmentation of a normal lumen and a stenotic lumen, and the registration of a lumen specifically refers to performing registration according to a feature space of the same vascular segment at different moments to generate a displacement field function; and a finite element calculation module, configured to perform finite element calculation on a two-dimensional vascular lumen by utilizing the above displacement field function and perform calculation by selecting a vascular lumen at a certain moment as an initial state to obtain a time-dependent parameter and cloud picture comprising a function that a lumen diameter sequence or area is changed with time, and a linear strain of the lumen contour.
A compound of Formula: or salts, hydrates or solvates thereof wherein: R 1 is hydrogen, alkyl, substituted alkyl, arylalkyl, substituted arylalkyl, or - CO 2 R 2, wherein an alkyl group means a saturated or unsaturated, branched, straight-chain or cyclic monovalent hydrocarbon comprising from 1 to 6 carbon atoms, and wherein the arylalkyl group comprises from 6 to 15 carbon atoms, the alkanyl, alkenyl or alkynyl moiety of the arylalkyl group comprising from 1 to 5 carbon atoms and the aryl moiety comprising from 6 to 10 carbon atoms; R 2 is aryl or substituted aryl; Y is -NR 3; R 3 is hydrogen or alkyl; and X is R 4 is -Cl, -Br, -F, -I, -CH 3 -CF 3, -OCF 3, -OH, -CO 2 t-Bu, -NO 2, -NH 2, -COCH 3 or -CN; wherein the aryl group comprises from 6 to 15 carbon atoms, R 1 is hydrogen, alkyl, substituted alkyl, arylalkyl, substituted arylalkyl, or - CO 2 R 2, wherein an alkyl group means a saturated or unsaturated, branched, straight-chain or cyclic monovalent hydrocarbon comprising from 1 to 6 carbon atoms, and wherein the arylalkyl group comprises from 6 to 15 carbon atoms, the alkanyl, alkenyl or alkynyl moiety of the arylalkyl group comprising from 1 to 5 carbon atoms and the aryl moiety comprising from 6 to 10 carbon atoms; R 2 is aryl or substituted aryl; Y is -NR 3; R 3 is hydrogen or alkyl; and X is R 4 is -Cl, -Br, -F, -I, -CH 3 -CF 3, -OCF 3, -OH, -CO 2 t-Bu, -NO 2, -NH 2, -COCH 3 or -CN; wherein the aryl group comprises from 6 to 15 carbon atoms,
A roll of paperband (31; 38) composed of folded paperboard and suitable for use in paper web cutting, turn-up systems and baling, said paperband comprising: a paperboard having side portions (32, 33; 39, 40), a center portion and edges (37; 50, 51), said side portions being folded inwardly toward said center portion, the width of said side portions being less than the width of said center portion but greater than half the width of said center portion, such that said side portions overlap each other but do not extend completely across said center portion and thereby defining a middle three layer portion and a pair of two layer lateral portions; and said center portion and respective said side portions (32, 33; 39, 40) forming two longitudinal flexible lines of weakness (36; 48, 49) being defined adjacent said edges (37; 50, 51) such that said two layer lateral portions readily flex relative to said middle three layer portion. a paperboard having side portions (32, 33; 39, 40), a center portion and edges (37; 50, 51), said side portions being folded inwardly toward said center portion, the width of said side portions being less than the width of said center portion but greater than half the width of said center portion, such that said side portions overlap each other but do not extend completely across said center portion and thereby defining a middle three layer portion and a pair of two layer lateral portions; and said center portion and respective said side portions (32, 33; 39, 40) forming two longitudinal flexible lines of weakness (36; 48, 49) being defined adjacent said edges (37; 50, 51) such that said two layer lateral portions readily flex relative to said middle three layer portion.
A resonance type power transmission device in which a plurality of systems having respective transmitters and receivers are arranged opposite to each other and each of the systems transmits electric power having a single frequency, each of the transmitters and receivers having a transmission antenna and a reception antenna which are fitted to each other, said resonance type power transmission device further comprising a magnetic sheet (7, 8) disposed in a portion between said systems, opposite to said transmitters and receivers at a distance, from each of said transmitters and receivers, of 1/10 or more of a minimum of outer diameters of said transmission antenna and said reception antenna, characterized in that: the transmission antenna and the reception antenna are arranged in a plane.
A waste heat utilisation system for an internal combustion engine, comprising: a Rankine cycle including a circulation path for a working fluid, in which are sequentially inserted an evaporator (34, 41) configured to heat and evaporate the working fluid by waste heat of the internal combustion engine, an expander configured to expand the working fluid supplied from the evaporator, to generate rotary driving force, a condenser configured to condense the working fluid supplied from the expander, and a pump (46, 49) configured to deliver, to the evaporator, the working fluid supplied from the condenser; and a motor-generator including an inner rotor and an outer rotor located inside and outside, respectively, of a stator thereof, wherein at least the motor-generator and the expander are coupled to each other with either one of the inner and outer rotors of the motor-generator coupled to a rotary shaft of the expander, and the other of the inner and outer rotors is coupled to a rotary shaft of the internal combustion engine, the motor-generator being capable of causing each of the inner and outer rotors to function as both a generator and a motor as needed. a Rankine cycle including a circulation path for a working fluid, in which are sequentially inserted an evaporator (34, 41) configured to heat and evaporate the working fluid by waste heat of the internal combustion engine, an expander configured to expand the working fluid supplied from the evaporator, to generate rotary driving force, a condenser configured to condense the working fluid supplied from the expander, and a pump (46, 49) configured to deliver, to the evaporator, the working fluid supplied from the condenser; and a motor-generator including an inner rotor and an outer rotor located inside and outside, respectively, of a stator thereof, wherein at least the motor-generator and the expander are coupled to each other with either one of the inner and outer rotors of the motor-generator coupled to a rotary shaft of the expander, and the other of the inner and outer rotors is coupled to a rotary shaft of the internal combustion engine, the motor-generator being capable of causing each of the inner and outer rotors to function as both a generator and a motor as needed.