mhurhangee/patent-ind-claim-en huggingface dataset:
A signal transmission method comprising: • determining, by a sending device, a target precoding matrix V , wherein V =( H ) -1 · H̃ , H indicates a channel matrix between the sending device and a receiving device, H̃ indicates an equivalent channel matrix between the sending device and the receiving device, ( H̃ H · H̃ ) or ( H̃ · H̃ H ) is a diagonal matrix, and H̃ is related to a transmission distance D between the sending device and the receiving device and an element spacing of an antenna of the receiving device, wherein an antenna of the sending device and the antenna of the receiving device both comprise a plurality of elements (S no); and • precoding a to be sent signal using the target precoding matrix V , thereby arriving at a precoded signal, and sending, by the sending device, the precoded signal to the receiving device (S120). • determining, by a sending device, a target precoding matrix V , wherein V =( H ) -1 · H̃ , H indicates a channel matrix between the sending device and a receiving device, H̃ indicates an equivalent channel matrix between the sending device and the receiving device, ( H̃ H · H̃ ) or ( H̃ · H̃ H ) is a diagonal matrix, and H̃ is related to a transmission distance D between the sending device and the receiving device and an element spacing of an antenna of the receiving device, wherein an antenna of the sending device and the antenna of the receiving device both comprise a plurality of elements (S no); and • precoding a to be sent signal using the target precoding matrix V , thereby arriving at a precoded signal, and sending, by the sending device, the precoded signal to the receiving device (S120).
A computer-implemented cybersecurity method comprising: generating and storing a log of at least some operations performed by a process; generating a process fingerprint of the process, wherein the process fingerprint identifies the process based, at least in part, on dynamic features of the process; comparing the process fingerprint to a plurality of process fingerprints; and based, at least in part, on a result of the comparison indicating that the process fingerprint matches a process fingerprint included in the plurality of process fingerprints, performing a data reduction operation on data associated with the process, wherein performing the data reduction operation on the data associated with the process comprises deleting the log, wherein generating the process fingerprint comprises performing a cryptographic hash operation on data representing dynamic features of the process, and wherein the data representing dynamic features of the process comprises data characterizing modules loaded by the process, data characterizing file operations associated with the process, data characterizing registry operations performed by the process, data characterizing network activity associated with the process, and/or data characterizing inter-process operations performed by the process. generating and storing a log of at least some operations performed by a process; generating a process fingerprint of the process, wherein the process fingerprint identifies the process based, at least in part, on dynamic features of the process; comparing the process fingerprint to a plurality of process fingerprints; and based, at least in part, on a result of the comparison indicating that the process fingerprint matches a process fingerprint included in the plurality of process fingerprints, performing a data reduction operation on data associated with the process, wherein performing the data reduction operation on the data associated with the process comprises deleting the log, wherein generating the process fingerprint comprises performing a cryptographic hash operation on data representing dynamic features of the process, and wherein the data representing dynamic features of the process comprises data characterizing modules loaded by the process, data characterizing file operations associated with the process, data characterizing registry operations performed by the process, data characterizing network activity associated with the process, and/or data characterizing inter-process operations performed by the process.
Microwave connector assembly , comprising a cylindrical waveguide ferrule having a receiving end for receiving a polarization-maintaining microwave dielectric waveguide and a connecting end located distal to the receiving end and a ferrule socket for at least partially receiving the waveguide ferrule in a ferrule receptacle , the waveguide ferrule comprising at least one locking member for a locking connection with the ferrule socket wherein the ferrule socket comprises at least one coding member that engages a complementary coding member of the waveguide ferrule only when the waveguide ferrule is positioned relative to the ferrule socket in a single predetermined angular position or in one out of two predetermined angular positions which are rotated by 180° with respect to each other, characterized in that a retainer is comprised which is insertable into the ferrule socket , and in that a secondary locking member of the retainer engages with the locking member , preventing the waveguide ferrule from being removed from the ferrule socket .
Process for making an electrode active material according to general formula Li 1+x TM 1-x O 2 , wherein TM is a combination of Ni and Co and Zr and at least one metal selected from Mn and Al, and, optionally, at least one of Mg, Ti, and W, wherein at least 60 mole-% is Ni, referring to the sum of Ni, Co and, if applicable, Mn and Al, and x is in the range of from zero to 0.2, said process comprising the following steps: (a) mixing (A) a mixed oxide or mixed oxyhydroxide of Ni, Co, and at least one of Mn and Al, and (B) at least one lithium compound selected from lithium hydroxide, lithium oxide and lithium carbonate, and (C) at least one oxide or hydroxide or oxyhydroxide of Zr with an average diameter D50 in the range of from 1 to 7 μm, and in compounds (C) that are selected from oxides of Zr, their crystallite size is in the range of from 5 to 20 nm, (b) subjecting said mixture to heat treatment at a temperature in the range of from 650 to 1000°C. (a) mixing (A) a mixed oxide or mixed oxyhydroxide of Ni, Co, and at least one of Mn and Al, and (B) at least one lithium compound selected from lithium hydroxide, lithium oxide and lithium carbonate, and (C) at least one oxide or hydroxide or oxyhydroxide of Zr with an average diameter D50 in the range of from 1 to 7 μm, and in compounds (C) that are selected from oxides of Zr, their crystallite size is in the range of from 5 to 20 nm, (A) a mixed oxide or mixed oxyhydroxide of Ni, Co, and at least one of Mn and Al, and (B) at least one lithium compound selected from lithium hydroxide, lithium oxide and lithium carbonate, and (C) at least one oxide or hydroxide or oxyhydroxide of Zr with an average diameter D50 in the range of from 1 to 7 μm, (b) subjecting said mixture to heat treatment at a temperature in the range of from 650 to 1000°C.
A hybrid capacitor comprising a capacitor element and an electrolytic solution that is impregnated into the capacitor element, wherein the capacitor element comprises a positive electrode including a polarizable electrode having an electrical double-layer capacitance; and a negative electrode having a layer of a negative electrode active material including metal compound particles which can occlude and release lithium ions and have a three-dimensional network structure in which primary particles are bonded to each other with voids , and wherein the electrolytic solution comprises a lithium salt with a molar concentration of 1.6 M or more as an electrolyte, characterized in that : the metal compound particles have the three-dimensional network structure in which crystallites of the lithium titanate are connected to each other, and wherein a Magneli phase that is a titanium oxide represented by a general formula Ti n O 2n-1 (3≤n≤10) is formed on a part of the surfaces of the crystallites. wherein the capacitor element comprises a positive electrode including a polarizable electrode having an electrical double-layer capacitance; and a negative electrode having a layer of a negative electrode active material including metal compound particles which can occlude and release lithium ions and have a three-dimensional network structure in which primary particles are bonded to each other with voids , and wherein the electrolytic solution comprises a lithium salt with a molar concentration of 1.6 M or more as an electrolyte, characterized in that : the metal compound particles have the three-dimensional network structure in which crystallites of the lithium titanate are connected to each other, and wherein a Magneli phase that is a titanium oxide represented by a general formula Ti n O 2n-1 (3≤n≤10) is formed on a part of the surfaces of the crystallites. the metal compound particles have the three-dimensional network structure in which crystallites of the lithium titanate are connected to each other, and wherein a Magneli phase that is a titanium oxide represented by a general formula Ti n O 2n-1 (3≤n≤10) is formed on a part of the surfaces of the crystallites.
An environmental control system of a vehicle, the environmental control system comprising: bleed air sourced from a low-pressure location of an engine or an auxiliary power unit ; recirculated cabin air (D2); and an air conditioning pack comprising: at least one heat exchanger ; an air cycle machine comprising a compressor ; a first mixing point located outside the air cycle machine and inside the air conditioning pack, the first mixing point configured to mix the bleed air with the recirculated cabin air during a first mode; a second mixing point located outside the air cycle machine, inside the air conditioning pack, and upstream of the at least one heat exchanger, the second mixing point being configured to mix the bleed air with the recirculated cabin air during a second mode; and a third mixing point located inside the air cycle machine, inside the air conditioning pack, and an inlet of the compressor, the third mixing point configured to receive and mix a portion of air exiting the at least one heat exchanger with the bleed air to lower an inlet temperature of the bleed air entering the inlet of the compressor during the first mode. bleed air sourced from a low-pressure location of an engine or an auxiliary power unit ; recirculated cabin air (D2); and an air conditioning pack comprising: at least one heat exchanger ; an air cycle machine comprising a compressor ; a first mixing point located outside the air cycle machine and inside the air conditioning pack, the first mixing point configured to mix the bleed air with the recirculated cabin air during a first mode; a second mixing point located outside the air cycle machine, inside the air conditioning pack, and upstream of the at least one heat exchanger, the second mixing point being configured to mix the bleed air with the recirculated cabin air during a second mode; and a third mixing point located inside the air cycle machine, inside the air conditioning pack, and an inlet of the compressor, the third mixing point configured to receive and mix a portion of air exiting the at least one heat exchanger with the bleed air to lower an inlet temperature of the bleed air entering the inlet of the compressor during the first mode. at least one heat exchanger ; an air cycle machine comprising a compressor ; a first mixing point located outside the air cycle machine and inside the air conditioning pack, the first mixing point configured to mix the bleed air with the recirculated cabin air during a first mode; a second mixing point located outside the air cycle machine, inside the air conditioning pack, and upstream of the at least one heat exchanger, the second mixing point being configured to mix the bleed air with the recirculated cabin air during a second mode; and a third mixing point located inside the air cycle machine, inside the air conditioning pack, and an inlet of the compressor, the third mixing point configured to receive and mix a portion of air exiting the at least one heat exchanger with the bleed air to lower an inlet temperature of the bleed air entering the inlet of the compressor during the first mode.
Resection snare , comprising a first snare part and a second snare part , which snare parts form a snare tip on a distal end and are connected with or merging in a manipulation wire guided in a catheter at a proximal end , wherein the two snare parts are electrically insulated in a proximal region, and at least one snare part is electrically non-insulated in a distal region , wherein the two snare parts are interconnected at their distal ends to form a snare tip or the snare is formed in one piece, wherein the two snare parts comprise of one part, characterized in that the resection snare comprises at least one electrically insulated HF-surgically inactive skid at its distal end .
A phosphor element comprising: a support substrate ; an optical waveguide for propagating an excitation light (A) through said optical waveguide , said optical waveguide comprising a phosphor generating a fluorescence (C, E, F), and said optical waveguide comprising an emission side end surface emitting said excitation light (A) and said fluorescence (C, E, F), an opposing end surface opposing said emission side end surface , a bottom surface , a top surface opposing said bottom surface and a pair of side surfaces ; a bottom surface side clad layer covering said bottom surface of said optical waveguide ; a top surface side clad layer covering said top surface of said optical waveguide ; side surface side clad layers covering said side surfaces of said optical waveguide , respectively; a top surface side reflection film covering said top surface side clad layer ; side surface side reflection films covering said side surface side clad layers , respectively; and a bottom surface side reflection film provided between said support substrate and said bottom surface side clad layer , wherein each reflection film is arranged to reflect the fluorescence (C, E, F) generated by the phosphor . a support substrate ; an optical waveguide for propagating an excitation light (A) through said optical waveguide , said optical waveguide comprising a phosphor generating a fluorescence (C, E, F), and said optical waveguide comprising an emission side end surface emitting said excitation light (A) and said fluorescence (C, E, F), an opposing end surface opposing said emission side end surface , a bottom surface , a top surface opposing said bottom surface and a pair of side surfaces ; a bottom surface side clad layer covering said bottom surface of said optical waveguide ; a top surface side clad layer covering said top surface of said optical waveguide ; side surface side clad layers covering said side surfaces of said optical waveguide , respectively; a top surface side reflection film covering said top surface side clad layer ; side surface side reflection films covering said side surface side clad layers , respectively; and a bottom surface side reflection film provided between said support substrate and said bottom surface side clad layer , wherein each reflection film is arranged to reflect the fluorescence (C, E, F) generated by the phosphor .
Locating and mapping device intended to be fitted to a machine which is mobile in an environment comprising a plurality of areas, comprising: - a receiving module designed to receive data (d(α)) on the positioning of obstacles relative to the machine; - a processing module designed to determine, depending on the received positioning data (d(α)) and for a plurality of areas positioned relative to the machine, values characterizing the area concerned, the device being characterized in that the processing module determines measurement values (M_SCAN t,i ) representative, respectively, of a probability of the area concerned being occupied, of a probability of the area concerned being free and of a probability of the area concerned being unknown; and in that the device also comprises: - a mapping module designed to construct, for each area of said plurality of areas of the environment, constructed values (M_GRI t,k ) representative, respectively, of a probability of the area concerned being occupied, of a probability of the area concerned being free and of a probability of the area concerned being unknown; and - a locating module designed to determine the positioning of the machine in the environment which maximizes a measure of the match between the measurement values (M_SCAN t,i ) and the constructed values (M_GRI t,k ) and designed to determine the match measurement by using a measure of conflict between the measurement values (M_SCAN t,i ) and the constructed values (M_GRI t,k ). - a receiving module designed to receive data (d(α)) on the positioning of obstacles relative to the machine; - a processing module designed to determine, depending on the received positioning data (d(α)) and for a plurality of areas positioned relative to the machine, values characterizing the area concerned, the device being characterized in that the processing module determines measurement values (M_SCAN t,i ) representative, respectively, of a probability of the area concerned being occupied, of a probability of the area concerned being free and of a probability of the area concerned being unknown; - a mapping module designed to construct, for each area of said plurality of areas of the environment, constructed values (M_GRI t,k ) representative, respectively, of a probability of the area concerned being occupied, of a probability of the area concerned being free and of a probability of the area concerned being unknown; and - a locating module designed to determine the positioning of the machine in the environment which maximizes a measure of the match between the measurement values (M_SCAN t,i ) and the constructed values (M_GRI t,k ) and designed to determine the match measurement by using a measure of conflict between the measurement values (M_SCAN t,i ) and the constructed values (M_GRI t,k ).
Collision protection (1; 1M) for a load rack , comprising: an elongated main body , and a fastening portion at each end of the main body in the longitudinal direction thereof, the fastening portion being adapted to be fastened to a frame of the load rack such that an inner surface of the fastening portion contacts the frame ; wherein the main body has a thin-walled cross-section including a contact portion having a predetermined surface aligned parallel to the inner surface of the fastening portion and a surface defined as a contact surface opposite to the predetermined surface , characterized in that the contact portion has a first longitudinal edge and a second longitudinal edge which extend between the fastening portions , a first leg angled at the first longitudinal edge of the contact portion , and a second leg angled at the second longitudinal edge of the contact portion ; a first angle (α) between the contact portion and the first leg is 90°, and a second angle (β) between the contact portion and the second leg is less than 90°. an elongated main body , and a fastening portion at each end of the main body in the longitudinal direction thereof, the fastening portion being adapted to be fastened to a frame of the load rack such that an inner surface of the fastening portion contacts the frame ; wherein the main body has a thin-walled cross-section including a contact portion having a predetermined surface aligned parallel to the inner surface of the fastening portion and a surface defined as a contact surface opposite to the predetermined surface , characterized in that the contact portion has a first longitudinal edge and a second longitudinal edge which extend between the fastening portions , a first leg angled at the first longitudinal edge of the contact portion , and a second leg angled at the second longitudinal edge of the contact portion ; a contact portion having a predetermined surface aligned parallel to the inner surface of the fastening portion and a surface defined as a contact surface opposite to the predetermined surface , characterized in that the contact portion has a first longitudinal edge and a second longitudinal edge which extend between the fastening portions , a first leg angled at the first longitudinal edge of the contact portion , and a second leg angled at the second longitudinal edge of the contact portion ; a first angle (α) between the contact portion and the first leg is 90°, and a second angle (β) between the contact portion and the second leg is less than 90°.
A wing panel assembly system comprising: a wing build station configured to hold a wing panel ; a stringer staging station configured to hold a stringer ; and an overhead gantry sub-system comprising a bridge movable above the wing build station and the stringer staging station , the overhead gantry sub-system comprising a plurality of stringer lifting assemblies coupled to, and movable with, the bridge , each stringer lifting assembly including a lifting mechanism and an end effector coupled to the lifting mechanism , the lifting mechanism moving the end effector in a vertical direction along a vertical axis, the end effector having a stringer holder configured to engage and hold the stringer , the stringer holder configured to lift, move and release the stringer , the end effector having an actuator operable to move the stringer holder in at least one direction relative to the lifting mechanism ; wherein each stringer holder engages the stringer from above; wherein each stringer lifting assembly is configured to move the stringer from the stringer staging station to the wing build station located relative to a surface of a skin of the wing panel to place the stringer onto the skin of the wing panel in a determined location, wherein the actuator of the end effector includes a lateral positioner operable to move the stringer holder in a lateral direction perpendicular to the vertical direction ; and wherein the actuator further includes a transverse positioner operable to move the stringer holder in a transverse direction perpendicular to the vertical direction and the lateral direction . a wing build station configured to hold a wing panel ; a stringer staging station configured to hold a stringer ; and an overhead gantry sub-system comprising a bridge movable above the wing build station and the stringer staging station , the overhead gantry sub-system comprising a plurality of stringer lifting assemblies coupled to, and movable with, the bridge , each stringer lifting assembly including a lifting mechanism and an end effector coupled to the lifting mechanism , the lifting mechanism moving the end effector in a vertical direction along a vertical axis, the end effector having a stringer holder configured to engage and hold the stringer , the stringer holder configured to lift, move and release the stringer , the end effector having an actuator operable to move the stringer holder in at least one direction relative to the lifting mechanism ; wherein each stringer holder engages the stringer from above; wherein each stringer lifting assembly is configured to move the stringer from the stringer staging station to the wing build station located relative to a surface of a skin of the wing panel to place the stringer onto the skin of the wing panel in a determined location, wherein the actuator of the end effector includes a lateral positioner operable to move the stringer holder in a lateral direction perpendicular to the vertical direction ; and wherein the actuator further includes a transverse positioner operable to move the stringer holder in a transverse direction perpendicular to the vertical direction and the lateral direction .