mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a luminescent pavement including distributing particles having luminescent properties on the hot asphalt pavement, and then pressing those particles into the pavement and leaving it to cool down, characterized in that a luminescent aggregate comprising particles being a combination comprising a thermosetting synthetic carrier bonded with a photoluminescent agent is used as particles having luminescent properties, wherein the photoluminescent agent is alkaline earth metal aluminate activated by at least one rare earth metal, and wherein the luminescent aggregate has a polyaspartic resin coating in an amount from about 0.1 to about 2.5 wt. %.
Calibration device , comprising - a calibration sensor , • which has a longitudinal axis (L), • which has an electrical connection socket , and • which is provided with a screwdriver blade projecting from an end face along the longitudinal axis (L); and - a plug for insertion into the connection socket , which is connected with a connection cable in a torsion-proof manner, characterized, in that - a positioning auxiliary device is arranged on the plug including a contact surface which cooperates with a complementary counter surface of the screwdriver blade . - a calibration sensor , • which has a longitudinal axis (L), • which has an electrical connection socket , and • which is provided with a screwdriver blade projecting from an end face along the longitudinal axis (L); and • which has a longitudinal axis (L), • which has an electrical connection socket , and • which is provided with a screwdriver blade projecting from an end face along the longitudinal axis (L); and - a plug for insertion into the connection socket , which is connected with a connection cable in a torsion-proof manner, characterized, in that - a positioning auxiliary device is arranged on the plug including a contact surface which cooperates with a complementary counter surface of the screwdriver blade .
A surgical stapling device , comprising: an end effector including an anvil jaw member and a staple cartridge jaw member coupled to one another, the anvil jaw member and the staple cartridge jaw member being relatively movable such that the end effector is movable between an open position and a clamped position; a staple cartridge having staple pockets in the staple cartridge jaw member; staples in the staple pockets of the staple cartridge, and characterized by the staples being formed of a metal having a cathodic potential; and by a metal coating having an anodic potential on the anvil jaw member. an end effector including an anvil jaw member and a staple cartridge jaw member coupled to one another, the anvil jaw member and the staple cartridge jaw member being relatively movable such that the end effector is movable between an open position and a clamped position; a staple cartridge having staple pockets in the staple cartridge jaw member; staples in the staple pockets of the staple cartridge, and characterized by the staples being formed of a metal having a cathodic potential; and by a metal coating having an anodic potential on the anvil jaw member.
Support and containment element for articles comprising a base , lateral walls (3, 3', 3", 3′′′) connected to said base in a manner so as to form a single body, wherein said base and said lateral walls (3, 3', 3", 3′′′) together delimit a containment space that has at least one upper opening , delimited at an upper portion of said support and containment element, for accessing said space , characterized in that it comprises at least one stiffening element associated with at least one pair from among said lateral walls (3, 3', 3", 3′′′) at said upper portion , wherein said at least one stiffening element and said at least one pair from among said lateral walls (3, 3', 3", 3"') are mutually constrained in a permanent manner, wherein at least one section of said at least one stiffening element is at least partially incorporated in at least one pair of said lateral walls (3, 3', 3", 3′′′).
A growing device for growing plants from seeds, comprising: a water container ; a seed pad support structure for receiving one or more seed pads in a predetermined growing position above the water container ; and a wicking structure for each seed pad configured to contact, when the corresponding seed pad is in the growing position, the bottom surface of the seed pad at a predetermined wicking interface area and configured to transport water from the water container into the seed pad through the wicking interface area via capillary action; and wherein the seed pad support structure comprises a protrusion for each seed pad , the protrusion having a predetermined shape and orientation characterized in the seed pad support structure being configured to interact with a correspondingly shaped perforation in the corresponding seed pad , such that the protrusion extends through the perforation in the corresponding seed pad thereby defining the predetermined growing position for the corresponding seed pad . a water container ; a seed pad support structure for receiving one or more seed pads in a predetermined growing position above the water container ; and a wicking structure for each seed pad configured to contact, when the corresponding seed pad is in the growing position, the bottom surface of the seed pad at a predetermined wicking interface area and configured to transport water from the water container into the seed pad through the wicking interface area via capillary action; and wherein the seed pad support structure comprises a protrusion for each seed pad , the protrusion having a predetermined shape and orientation characterized in the seed pad support structure being configured to interact with a correspondingly shaped perforation in the corresponding seed pad , such that the protrusion extends through the perforation in the corresponding seed pad thereby defining the predetermined growing position for the corresponding seed pad .
Backfeeding installation , comprising: - modules (31 à 35 et 37) comprising the following functions: ∘ at least one compressor for compressing gas, ∘ an automaton for controlling the operation of at least one compressor, ∘ at least one sensor for checking the quality compliance of the gas circulating in the compressor, ∘ at least one meter for metering a flow rate of gas circulating in the compressor, and ∘ at least one filter for filtering the gas circulating in the compressor; and - an interconnection module for interconnection between the other modules and with a gas network at a first pressure and a gas network at a second pressure higher than the first pressure; characterized in that at least one of these modules (31 à 35, 37) is mobile, configured to be transported, in its entirety and operational by means of a removable connection to the interconnection module and to a power source, on a single vehicle. - modules (31 à 35 et 37) comprising the following functions: ∘ at least one compressor for compressing gas, ∘ an automaton for controlling the operation of at least one compressor, ∘ at least one sensor for checking the quality compliance of the gas circulating in the compressor, ∘ at least one meter for metering a flow rate of gas circulating in the compressor, and ∘ at least one filter for filtering the gas circulating in the compressor; and ∘ at least one compressor for compressing gas, ∘ an automaton for controlling the operation of at least one compressor, ∘ at least one sensor for checking the quality compliance of the gas circulating in the compressor, ∘ at least one meter for metering a flow rate of gas circulating in the compressor, and ∘ at least one filter for filtering the gas circulating in the compressor; and - an interconnection module for interconnection between the other modules and with a gas network at a first pressure and a gas network at a second pressure higher than the first pressure;
A turbine section for a gas turbine engine , comprising: a first static vane structure ; a variable reaction free wheel downstream of the first static vane structure ; and a turbine rotor downstream of the variable reaction free wheel , wherein the variable reaction free wheel is configured to augment a swirl of core flow combustion gases from the first static vane structure to the turbine rotor ; characterised in that : the variable reaction free wheel comprises a stator assembly and a rotor assembly , the rotor assembly comprising a multiple of free wheel rotor blades ; the variable reaction free wheel is driven by an electric motor formed by the stator assembly and the rotor assembly ; and the variable reaction free wheel is configured to rotate independently and be selectively controlled with respect to the downstream turbine rotor . a first static vane structure ; a variable reaction free wheel downstream of the first static vane structure ; and a turbine rotor downstream of the variable reaction free wheel , wherein the variable reaction free wheel is configured to augment a swirl of core flow combustion gases from the first static vane structure to the turbine rotor ; characterised in that : the variable reaction free wheel comprises a stator assembly and a rotor assembly , the rotor assembly comprising a multiple of free wheel rotor blades ; the variable reaction free wheel is driven by an electric motor formed by the stator assembly and the rotor assembly ; and the variable reaction free wheel is configured to rotate independently and be selectively controlled with respect to the downstream turbine rotor . the variable reaction free wheel comprises a stator assembly and a rotor assembly , the rotor assembly comprising a multiple of free wheel rotor blades ; the variable reaction free wheel is driven by an electric motor formed by the stator assembly and the rotor assembly ; and the variable reaction free wheel is configured to rotate independently and be selectively controlled with respect to the downstream turbine rotor .
A semiconductor device , comprising a circuit unit comprising: a heat sink layer ; a wiring layer (16a to 16d, 26a to 26d); and a semiconductor element between the heat sink layer and the wiring layer (16a to 16d, 26a to 26d); a first flow path member composed of an insulating material; and a second flow path member composed of an insulating material, the circuit unit being disposed between the first flow path member and the second flow path member , the wiring layer (16a to 16d, 26a to 26d) facing the first flow path member or the second flow path member characterized by the wiring layer (16a to 16d, 26a to 26d) being connected to signal terminals of the semiconductor element via brazing materials or solders (15a to 15d, 25a to 25d) and being directly adhered to the first flow path member or the second flow path member . a heat sink layer ; a wiring layer (16a to 16d, 26a to 26d); and a semiconductor element between the heat sink layer and the wiring layer (16a to 16d, 26a to 26d);
A processor comprising: a plurality of compute units comprising circuitry configured to execute instructions; and a dispatch unit comprising circuitry configured to dispatch workgroups to the plurality of compute units ; wherein the processor is configured to: divide a workgroup into individual wavefronts for dispatch from the dispatch unit, responsive to determining that the workgroup does not fit within a single compute unit based on currently available resources of the plurality of compute units ; monitor a plurality of performance counters to track resource contention among the plurality of compute units ; calculate a load-rating of each compute unit for each selected resource based on the plurality of performance counters ; select compute units with the lowest load-rating for each selected resource as candidates for dispatch ; and dispatch the wavefronts of the workgroup to the selected compute units . a plurality of compute units comprising circuitry configured to execute instructions; and a dispatch unit comprising circuitry configured to dispatch workgroups to the plurality of compute units ; wherein the processor is configured to: divide a workgroup into individual wavefronts for dispatch from the dispatch unit, responsive to determining that the workgroup does not fit within a single compute unit based on currently available resources of the plurality of compute units ; monitor a plurality of performance counters to track resource contention among the plurality of compute units ; calculate a load-rating of each compute unit for each selected resource based on the plurality of performance counters ; select compute units with the lowest load-rating for each selected resource as candidates for dispatch ; and dispatch the wavefronts of the workgroup to the selected compute units . divide a workgroup into individual wavefronts for dispatch from the dispatch unit, responsive to determining that the workgroup does not fit within a single compute unit based on currently available resources of the plurality of compute units ; monitor a plurality of performance counters to track resource contention among the plurality of compute units ; calculate a load-rating of each compute unit for each selected resource based on the plurality of performance counters ; select compute units with the lowest load-rating for each selected resource as candidates for dispatch ; and dispatch the wavefronts of the workgroup to the selected compute units .
A method for taking images on a mobile communication terminal having a video call function, the mobile communication terminal comprising a controller and a camera module comprising a camera sensor and a signal processor , which signal processor is arranged to convert an analogue image signal output from the camera sensor to first digital images, the method comprising: performing a video call between the mobile communication terminal and an external electronic device via the camera module and a wireless communication unit by transmitting a plurality of first digital images of the video call having a first resolution output from the camera module ; while performing the video call, receiving a request signal to take a second digital image, other than the plurality of first digital images, via the camera module , the second digital image having a second resolution being higher than the first resolution output from the camera sensor ; and in response to the request, inputting the analog image signal from the camera sensor to the controller, converting the analog signal into digital data by the controller, compressing said digital data to obtain the second digital image by the controller and storing the second digital image in a memory while performing the video call. performing a video call between the mobile communication terminal and an external electronic device via the camera module and a wireless communication unit by transmitting a plurality of first digital images of the video call having a first resolution output from the camera module ; while performing the video call, receiving a request signal to take a second digital image, other than the plurality of first digital images, via the camera module , the second digital image having a second resolution being higher than the first resolution output from the camera sensor ; and in response to the request, inputting the analog image signal from the camera sensor to the controller, converting the analog signal into digital data by the controller, compressing said digital data to obtain the second digital image by the controller and storing the second digital image in a memory while performing the video call.
A cyber-security monitoring, CSM, computer device for responding to cybersecurity threats, said CSM computer device comprising a processor , in communication with a memory , , said processor , configured to: monitor a virtual network including plurality of virtual machines; detect a cybersecurity threat to a first virtual machine of the plurality of virtual machines; generate a second virtual machine based on the first virtual machine; adjust the second virtual machine based on the cybersecurity threat; disconnect the first virtual machine from the virtual network to prevent communication between the first virtual machine and the plurality of virtual machines included in the virtual network ; connect the second virtual machine to the virtual network ; receive one or more instructions for the first virtual machine from the cybersecurity threat; generate one or more false responses based on the one or more instructions; and transmit the one or more false responses, so that it appears to the cybersecurity threat that the one or more instructions were followed. monitor a virtual network including plurality of virtual machines; detect a cybersecurity threat to a first virtual machine of the plurality of virtual machines; generate a second virtual machine based on the first virtual machine; adjust the second virtual machine based on the cybersecurity threat; disconnect the first virtual machine from the virtual network to prevent communication between the first virtual machine and the plurality of virtual machines included in the virtual network ; connect the second virtual machine to the virtual network ; receive one or more instructions for the first virtual machine from the cybersecurity threat; generate one or more false responses based on the one or more instructions; and transmit the one or more false responses, so that it appears to the cybersecurity threat that the one or more instructions were followed.
A method for generating a new hybrid map by extending and/or modifying a first hybrid map with a second hybrid map, wherein a hybrid map contains a plurality of information categories and a takeover decision is made for the respective information categories as to which map is to be used as a source in the respective information category, i.e. whether information from the first hybrid map or the second hybrid map is taken over into the new hybrid map or a combination of information from both hybrid maps is taken over or whether no information is taken over in an information category, characterized in that the hybrid map is used for the navigation of a vehicle guided by a physical or virtual trail in a navigation area on a trajectory of the vehicle to be travelled that is predetermined by the trail , on the basis of an environment contour recorded by a contour detection sensor , wherein one information category comprises the trail and one information category comprises the environment contour of the trail , and in that the takeover decision is made by a defining specification for each information category.
A system comprising a foam structure and a surgical fixation device for attaching the foam structure to bone, the foam structure comprising: a porous body made of at least one biocompatible implant material, wherein the porous body is coated with a coating; characterized in that the coating is capable of stimulating bone ingrowth; wherein the coating is a hydroxyapatite coating with a thickness between 1 μm and 200 μm. a porous body made of at least one biocompatible implant material, wherein the porous body is coated with a coating; characterized in that the coating is capable of stimulating bone ingrowth; wherein the coating is a hydroxyapatite coating with a thickness between 1 μm and 200 μm.
A battery comprising: - a battery monitoring system integrated into the battery and configured to monitor a health of the battery ; wherein the battery monitoring system is configured to receive an input signal from a wired interface or a wireless interface, the input signal is configured to instruct the battery monitoring system to provide feedback regarding the health of the battery , characterised in that the wired interface consists of a positive terminal and a negative terminal of the battery ; and wherein the input signal is further configured to instruct the battery monitoring system to provide feedback regarding a health of the battery monitoring system in a self test mode . - a battery monitoring system integrated into the battery and configured to monitor a health of the battery ; wherein the battery monitoring system is configured to receive an input signal from a wired interface or a wireless interface, the input signal is configured to instruct the battery monitoring system to provide feedback regarding the health of the battery , characterised in that the wired interface consists of a positive terminal and a negative terminal of the battery ; and wherein the input signal is further configured to instruct the battery monitoring system to provide feedback regarding a health of the battery monitoring system in a self test mode .
A method for purifying a DsbC polypeptide from a cell lysate comprising the DsbC polypeptide, the method comprising a) adding polyethyleneimine (PEI) to a final concentration of about 0.01% to about 1.0% to a cell lysate comprising the DsbC polypeptide, preferably 0.1%, b) clarifying the cell lysate by centrifugation, c) applying the clarified cell lysate comprising the DsbC polypeptide to an anion exchange chromatography material, d) eluting the DsbC polypeptide from the anion exchange chromatography material to generate an anion exchange eluate comprising the DsbC polypeptide, e) applying the anion exchange eluate comprising the DsbC polypeptide to a hydrophobic interaction chromatography (HIC) material, optionally wherein the anion exchange material is washed in 10 mM MOPS, f) eluting the DsbC polypeptide from the HIC material to generate a HIC eluate, g) applying the HIC eluate comprising the DsbC polypeptide to a size exclusion chromatography, h) collecting fractions from the size exclusion chromatography comprising the purified DsbC, wherein the DsbC comprises at least 95% monomeric DsbC polypeptide. a) adding polyethyleneimine (PEI) to a final concentration of about 0.01% to about 1.0% to a cell lysate comprising the DsbC polypeptide, preferably 0.1%, b) clarifying the cell lysate by centrifugation, c) applying the clarified cell lysate comprising the DsbC polypeptide to an anion exchange chromatography material, d) eluting the DsbC polypeptide from the anion exchange chromatography material to generate an anion exchange eluate comprising the DsbC polypeptide, e) applying the anion exchange eluate comprising the DsbC polypeptide to a hydrophobic interaction chromatography (HIC) material, optionally wherein the anion exchange material is washed in 10 mM MOPS, f) eluting the DsbC polypeptide from the HIC material to generate a HIC eluate, g) applying the HIC eluate comprising the DsbC polypeptide to a size exclusion chromatography, h) collecting fractions from the size exclusion chromatography comprising the purified DsbC, wherein the DsbC comprises at least 95% monomeric DsbC polypeptide.