mhurhangee/ep-ind-claims huggingface dataset:
A dynamically-loaded code analysis device comprising: a tag-information control unit configured to add a tag information to user information, a memory unit that memorizes dynamically-loaded code information indicating a class structure of a dynamically-loaded code and call method information in which the tag information added to the user information is associated with a class structure of a code performed when the tag information propagates, for each of the dynamically-loaded codes acquired via a network, the dynamically-loaded code being a code dynamically loaded after installation of an original code; an extraction unit that detects transmission of user information from the dynamically-loaded code analysis device to another device and reads tag information that matches tag information added to the detected user information from the call method information memorized in the memory unit, to extract a class structure associated with the read tag information from the call method information memorized in the memory unit; and a specification unit that searches the memory unit for dynamically-loaded code information indicating the extracted class structure, to specify a dynamically-loaded code corresponding to the searched dynamically-loaded code information. a tag-information control unit configured to add a tag information to user information, a memory unit that memorizes dynamically-loaded code information indicating a class structure of a dynamically-loaded code and call method information in which the tag information added to the user information is associated with a class structure of a code performed when the tag information propagates, for each of the dynamically-loaded codes acquired via a network, the dynamically-loaded code being a code dynamically loaded after installation of an original code; an extraction unit that detects transmission of user information from the dynamically-loaded code analysis device to another device and reads tag information that matches tag information added to the detected user information from the call method information memorized in the memory unit, to extract a class structure associated with the read tag information from the call method information memorized in the memory unit; and a specification unit that searches the memory unit for dynamically-loaded code information indicating the extracted class structure, to specify a dynamically-loaded code corresponding to the searched dynamically-loaded code information.
Arrangement composed of a core and a blow mold for producing fiber composite components, the core being designed as a hollow mold, and the core being made of fiber composite material, characterized in that the core has a fiber reinforcement substantially in one direction only, the direction of the fiber reinforcement being designated as the main direction of loading of the core when the fibers are deposited on the core, the core being designed in such a way that, when the blow mold is actuated in the interior of the core, the core breaks open in the direction of the fiber reinforcement.
A surgical instrument, comprising: a power pack including: a motor; and a drive shaft (304; 502; 604, 606; 704, 804) coupled to and rotatable by the motor; an outer shell housing (100, 110A, 110B) configured to selectively encase the power pack therein, the outer shell housing including a first drive member (312, 512, 612, 712, 812) non-rotatably supported in a distal portion of the outer shell housing, the first drive member being configured to selectively couple to the drive shaft of the power pack through a means for transforming a rotational motion of the drive shaft into a linear motion of the first drive member, and an adapter assembly having a proximal end configured to selectively couple to the outer shell housing, and a distal end configured to couple to a loading unit, the adapter assembly having a second drive member (322, 522) supported in the proximal end, the second drive member being configured to selectively couple to the first drive member of the outer shell housing such that rotation of the drive shaft (304; 502; 604, 606; 704, 804) actuates linear motion of the second drive member through the first drive member such that rotational motion originating from the motor is converted into the linear motion within the outer shell housing. a power pack including: a motor; and a drive shaft (304; 502; 604, 606; 704, 804) coupled to and rotatable by the motor; a motor; and a drive shaft (304; 502; 604, 606; 704, 804) coupled to and rotatable by the motor; an outer shell housing (100, 110A, 110B) configured to selectively encase the power pack therein, the outer shell housing including a first drive member (312, 512, 612, 712, 812) non-rotatably supported in a distal portion of the outer shell housing, the first drive member being configured to selectively couple to the drive shaft of the power pack through a means for transforming a rotational motion of the drive shaft into a linear motion of the first drive member, and an adapter assembly having a proximal end configured to selectively couple to the outer shell housing, and a distal end configured to couple to a loading unit, the adapter assembly having a second drive member (322, 522) supported in the proximal end, the second drive member being configured to selectively couple to the first drive member of the outer shell housing such that rotation of the drive shaft (304; 502; 604, 606; 704, 804) actuates linear motion of the second drive member through the first drive member such that rotational motion originating from the motor is converted into the linear motion within the outer shell housing.
A nickel base superalloy composition consisting of, in percentages by weight: 5-8 Cr; 6.5-9 Co; 1.3-2.5 Mo; 4.8-6.8 W; 6.0-7.0 Ta; if present, up to 0.5 Ti; 6.0-6.4 Al; 1-2.3 Re; if present, up to 0.6 Hf; if present, up to 1.5 C; if present, up to 0.015 B; if present, up to 0.03 total of a rare earth selected from Y, La, and Ce, and mixtures thereof; the balance being nickel and incidental impurities; wherein an Re ratio defined as the weight % of Re relative to the total of the weight % of W and the wt % of Mo, is less than 0.3; characterized by a P-value of less than 3360, wherein the P-value is defined as: P = - 200 Cr + 80 Mo - 20 Mo 2 - 250 Ti 2 - 50 (Ti x Ta) + 200 W - 14 W 2 + 30 Ta - 1.5 Ta 2 + 2.5 Co + 1200 Al - 100 Al 2 + 100 Re + 1000 Hf - 2000 Hf 2 + 700 Hf 3 - 500 C - 15000 B.
A screw-type vacuum pump, comprising a housing defining a suction chamber, wherein the housing is made of aluminum or an aluminum alloy, two screw rotors arranged in said suction chamber, each comprising at least one displacer element (10, 12) having a helical recess for forming several windings, wherein the at least one displacer element (10, 12) is made of aluminum or an aluminum alloy, characterized in that in case of a prevailing suction pressure of less than 200 mbar (absolute pressure) between the region in which 5% to 20% of the outlet pressure prevail and a pressure-side rotor end (pump outlet) at least six, particularly at least eight and with particular preference at least ten windings are provided, and that the one displacer element is formed as a pressure-side displacer element and at least one further displacer element is provided per screw rotor, wherein the recesses of the displacer elements (10, 12) each have the same contour along the entire length.
A pulse forming network, PFN, module, comprising: a PFN circuit configured to generate a pulsed DC output power, the PFN circuit including an energy storage inductor (L1-L4) with a primary winding having a primary inductance that controls a primary impedance of the PFN circuit; an energy storage capacitor (C1-C4); (C1-C4) for providing a DC input power to the PFN circuit; characterised in that the PFN module comprises a circuit interruption apparatus for commuting a current from a secondary winding to an external protection circuit; and a fault current limiting, FCL, circuit including the secondary winding electromagnetically coupled with the primary winding and associated secondary circuit including a commutating device, the FCL circuit having a secondary impedance; wherein the commutating device is configured to control the primary inductance of the primary winding by adjusting the secondary impedance of the FCL circuit to exchange or dissipate fault energy existing in the PFN circuit during a fault event, the fault event being detected when the current flowing through the PFN circuit exceeds a current threshold, the commutating device configured to selectively control the primary inductance of the primary winding based on the fault event, wherein the commutating device is configured to insert the external protection circuit into the FCL secondary circuit, the external protection circuit including at least one discrete external inductor (Lx) and at least one discrete resistor (Rx) to assist in dissipating fault energy away from the PFN circuit. a PFN circuit configured to generate a pulsed DC output power, the PFN circuit including an energy storage inductor (L1-L4) with a primary winding having a primary inductance that controls a primary impedance of the PFN circuit; an energy storage capacitor (C1-C4); (C1-C4) for providing a DC input power to the PFN circuit; characterised in that the PFN module comprises a circuit interruption apparatus for commuting a current from a secondary winding to an external protection circuit; and a fault current limiting, FCL, circuit including the secondary winding electromagnetically coupled with the primary winding and associated secondary circuit including a commutating device, the FCL circuit having a secondary impedance; wherein the commutating device is configured to control the primary inductance of the primary winding by adjusting the secondary impedance of the FCL circuit to exchange or dissipate fault energy existing in the PFN circuit during a fault event, the fault event being detected when the current flowing through the PFN circuit exceeds a current threshold, the commutating device configured to selectively control the primary inductance of the primary winding based on the fault event, wherein the commutating device is configured to insert the external protection circuit into the FCL secondary circuit, the external protection circuit including at least one discrete external inductor (Lx) and at least one discrete resistor (Rx) to assist in dissipating fault energy away from the PFN circuit.
Reinforced pitch bearing of a wind turbine comprising a first reinforcement plate and a second reinforcement plate, wherein - the pitch bearing comprises an outer bearing ring and an inner bearing ring, whereby both bearing rings (33, 34) are arranged coaxially to each other, thus comprising a common axis of symmetry, - the first reinforcement plate is arranged at a first axial end of the pitch bearing and the second reinforcement plate is arranged at a second axial end of the pitch bearing, the axial ends being defined with regard to the common axis of symmetry, - the reinforcement plates (31, 32) are arranged substantially parallel to each other, - the first reinforcement plate and/or the second reinforcement plate are attached to the inner bearing ring, and - the pitch bearing comprises further means for reinforcement, the further means being arranged in between the first reinforcement plate and the second reinforcement plate, characterized in that - both reinforcement plates (31, 32) are coupled by the further means for reinforcing the pitch bearing such that the stiffness of the pitch bearing is increased. - the pitch bearing comprises an outer bearing ring and an inner bearing ring, whereby both bearing rings (33, 34) are arranged coaxially to each other, thus comprising a common axis of symmetry, - the first reinforcement plate is arranged at a first axial end of the pitch bearing and the second reinforcement plate is arranged at a second axial end of the pitch bearing, the axial ends being defined with regard to the common axis of symmetry, - the reinforcement plates (31, 32) are arranged substantially parallel to each other, - the first reinforcement plate and/or the second reinforcement plate are attached to the inner bearing ring, and - the pitch bearing comprises further means for reinforcement, the further means being arranged in between the first reinforcement plate and the second reinforcement plate, - both reinforcement plates (31, 32) are coupled by the further means for reinforcing the pitch bearing such that the stiffness of the pitch bearing is increased.
A method for the diagnosis of prostate cancers, comprising the steps of: a. determining a plurality of expression values of each one of a group of predictor genes, in an isolated prostate tissue sample, b. providing to a trained predictive algorithm, operating in vector spaces, an input vector containing in respective vector elements each expression value of said plurality of expression values in said prostate tissue sample to be analyzed; c. processing the input vector, by the trained predictive algorithm; d. generating a result representative of said diagnosis for said prostate tissue sample; wherein: the trained predictive algorithm is Support Vector Machine, and the group of predictor genes is composed of (i) genes coding for HMBS, CLU, GAS I and ODC; said method further comprising, before the step a., the step of: - training the predictive algorithm, by using, as an input, known expression values in prostate tissue samples corresponding to the diagnosis of prostate cancer. a. determining a plurality of expression values of each one of a group of predictor genes, in an isolated prostate tissue sample, b. providing to a trained predictive algorithm, operating in vector spaces, an input vector containing in respective vector elements each expression value of said plurality of expression values in said prostate tissue sample to be analyzed; c. processing the input vector, by the trained predictive algorithm; d. generating a result representative of said diagnosis for said prostate tissue sample; wherein: the trained predictive algorithm is Support Vector Machine, and the group of predictor genes is composed of (i) genes coding for HMBS, CLU, GAS I and ODC; said method further comprising, before the step a., the step of: - training the predictive algorithm, by using, as an input, known expression values in prostate tissue samples corresponding to the diagnosis of prostate cancer. the trained predictive algorithm is Support Vector Machine, and the group of predictor genes is composed of (i) genes coding for HMBS, CLU, GAS I and ODC; said method further comprising, before the step a., the step of: - training the predictive algorithm, by using, as an input, known expression values in prostate tissue samples corresponding to the diagnosis of prostate cancer. - training the predictive algorithm, by using, as an input, known expression values in prostate tissue samples corresponding to the diagnosis of prostate cancer.
A method for the equipping of an antenna structure, in particular an RFID antenna structure, with an electronic component, in particular with an RFID chip, wherein the method comprises: producing the antenna structure (1, 1a), prior to the application of the component, by printing the antenna structure (1, 1a) on the carrier substrate by means of a sinterable material that is electrically conductive after its sintering, wherein the sinterable material is a sinterable ink which contains electrically conductive particles in order to form an electrical conductivity of the antenna structure (1, 1d), which is sintered by the subsequent heating; applying of an electronic component to the antenna structure (1; 1a, 1b) which is formed on a carrier substrate and which is made from the sinterable material that is electrically conductive after its sintering, so that a contact surface is formed between a contact region of the antenna structure and a corresponding electrical contact of the component; heating the antenna structure in order to sinter the same, and, caused thereby, with simultaneous formation of an adhesive-free mechanical and electrical connection between the contact region of the antenna structure and the electrical contact of the component; heating the sinterable material in the region of the contact surface to a temperature which is below the sintering temperature of the sinterable material for preliminary adhesive-free mechanical connection of the component with the antenna structure (1, 1c). producing the antenna structure (1, 1a), prior to the application of the component, by printing the antenna structure (1, 1a) on the carrier substrate by means of a sinterable material that is electrically conductive after its sintering, wherein the sinterable material is a sinterable ink which contains electrically conductive particles in order to form an electrical conductivity of the antenna structure (1, 1d), which is sintered by the subsequent heating; applying of an electronic component to the antenna structure (1; 1a, 1b) which is formed on a carrier substrate and which is made from the sinterable material that is electrically conductive after its sintering, so that a contact surface is formed between a contact region of the antenna structure and a corresponding electrical contact of the component; heating the antenna structure in order to sinter the same, and, caused thereby, with simultaneous formation of an adhesive-free mechanical and electrical connection between the contact region of the antenna structure and the electrical contact of the component; heating the sinterable material in the region of the contact surface to a temperature which is below the sintering temperature of the sinterable material for preliminary adhesive-free mechanical connection of the component with the antenna structure (1, 1c).
Suction tube for a urea sensor for installation in a urea tank for drawing urea solution from the urea tank, the suction tube having a suction pipe with a suction opening, characterized in that the suction pipe has at least one hole that is covered on the outside by a cover such that when, while the suction tube is installed in the tank, there is an under-pressure inside the suction pipe compared to in the tank, the cover will lock against the suction pipe and seal the hole, while with an overpressure inside the suction pipe compared to the tank, the cover deforms and allows excess urea solution to escape through the hole from the suction pipe back into the tank, wherein the cover is formed as a hose made from flexible material, such as rubber or plastic, and wherein the at least one hole is covered by the hose, that is partially surrounding the suction pipe.
Sanitary insert unit with an outlet mouthpiece that can be mounted on the water outlet of a sanitary outlet fitting and with an aerated jet regulator, wherein the jet regulator has a jet splitter and is sealed off axially by means of a sealing ring that can be clamped between the jet regulator and the outlet-side front edge of the outlet fitting, wherein the jet regulator has, on its inlet-side front face, an annular wall around which the sealing ring engages, and wherein the sealing ring, on the one hand, protrudes axially beyond the annular wall and, on the other hand, protrudes beyond the inlet-side front edge of the outlet mouthpiece, wherein the annular wall is integrally formed on the inlet-side front face of the jet splitter and the annular wall engages around a regulator housing of a flow rate regulator, characterized in that the sealing ring has a greater height compared to the thickness, in that the annular wall supports the sealing ring against lateral buckling of the sealing ring in the event of axial compression, in that the jet regulator has a jet regulator housing with which the jet regulator is insertable into the outlet mouthpiece, and which has a housing inlet and a housing outlet and also an inlet-side and an outlet-side housing part, wherein the jet splitter configured as a diffuser or as a perforated plate is insertable into the inlet-side housing part from the direction of the inlet-side front face of the housing.
A solar receiver arrangement having a plurality of tubes arranged to define at least one crotch portion between a pair of tubes, the plurality of tubes coupled to form at least one receiver panel, and having a support structure comprising: a plurality of tie members tangentially coupling the plurality of tubes to form the at least one receiver panel, such that at least one tie member is coupled in the at least one crotch portion; a plurality of panel support members, at least one of said plurality of panel support members coupled to the receiver panel in the at least one crotch portion; and at least one latching member extending downwardly from a supporting element of the solar receiver arrangement to align substantially above the receiver panel linearly to the panel support members to detachably attach distal ends of the plurality of panel support members and to engage the at least one receiver panel, wherein each of the plurality of tie members comprises a substantially short-length rod that is welded in and coupled to the at least one crotch portion between said pair of the tubes to cover a substantially small region thereof to permit maximum direct solar rays incident directly over said tubes. a plurality of tie members tangentially coupling the plurality of tubes to form the at least one receiver panel, such that at least one tie member is coupled in the at least one crotch portion; a plurality of panel support members, at least one of said plurality of panel support members coupled to the receiver panel in the at least one crotch portion; and at least one latching member extending downwardly from a supporting element of the solar receiver arrangement to align substantially above the receiver panel linearly to the panel support members to detachably attach distal ends of the plurality of panel support members and to engage the at least one receiver panel, wherein each of the plurality of tie members comprises a substantially short-length rod that is welded in and coupled to the at least one crotch portion between said pair of the tubes to cover a substantially small region thereof to permit maximum direct solar rays incident directly over said tubes.
A computer implemented method for load balancing within a mobile wireless communications network, the method comprising: i) periodically collecting performance parameters for a cell and a neighboring cell in the mobile wireless communications network; ii) determining if load balancing is applicable in response to the collected performance parameters; iii) adjusting geometry of the cell in the mobile wireless communications network by adjusting one or more of a size of the cell, an antenna tilt of an antenna associated with the cell, or a pilot power associated with the cell; and, iv) adjusting (420, 430) radio access network (110, 120) parameters by adjusting the neighboring cell handover parameter and a handover parameter of the cell in response to determining that load balancing is applicable to balance a load between the cell and the neighboring cell by reallocating traffic from the cell to the neighboring cell if the neighboring cell has spare capacity. i) periodically collecting performance parameters for a cell and a neighboring cell in the mobile wireless communications network; ii) determining if load balancing is applicable in response to the collected performance parameters; iii) adjusting geometry of the cell in the mobile wireless communications network by adjusting one or more of a size of the cell, an antenna tilt of an antenna associated with the cell, or a pilot power associated with the cell; and, iv) adjusting (420, 430) radio access network (110, 120) parameters by adjusting the neighboring cell handover parameter and a handover parameter of the cell in response to determining that load balancing is applicable to balance a load between the cell and the neighboring cell by reallocating traffic from the cell to the neighboring cell if the neighboring cell has spare capacity.