mhurhangee/ep-ind-claims huggingface dataset:
Method for measuring the occupancy of at least one transmission spectrum for a multicarrier radiofrequency signal communication system, the method comprising: - a step of slicing the spectrum into subsets of carriers and of time slicing within the subsets to form elementary time/frequency segments; - a step of signal non-transmission, by at least one transmission equipment item of the system, during elementary non-transmission segments mutually offset over time and in frequency, said elementary non-transmission segments being distributed in time over a determined period (Tl) and in frequency over the whole of the transmission spectrum to form a non-transmission pattern; and - a step of measuring chosen parameters of signals conveyed in the transmission spectrum during each of these elementary non-transmission segments. - a step of slicing the spectrum into subsets of carriers and of time slicing within the subsets to form elementary time/frequency segments; - a step of signal non-transmission, by at least one transmission equipment item of the system, during elementary non-transmission segments mutually offset over time and in frequency, said elementary non-transmission segments being distributed in time over a determined period (Tl) and in frequency over the whole of the transmission spectrum to form a non-transmission pattern; and - a step of measuring chosen parameters of signals conveyed in the transmission spectrum during each of these elementary non-transmission segments.
A cylinder lock comprising: a cylinder lock housing for receipt within a bore in a support in use, the housing having a front end and a rear end, the housing having a first bore at its front end for receiving a first rotatable lock driving member for rotation within the first bore; a cam connectable to the first rotatable lock driving member for rotation therewith, said cam adapted to operate a locking mechanism on rotation of the cam; the cam having a first position and a second position, wherein the cam moves in a first direction relative to the support when moving from its first position to its second position; the cylinder lock further comprising biasing means (50, 58) for biasing the cam towards its second position; and holding means (40, 47) for holding the cam in its first position; the cylinder lock being adapted such that if the cylinder lock is tampered with by movement or breakage of the holding means, the housing is caused to move from a first position to a second position, said cam being carried by and adapted to move with the housing as the housing moves between a first position and a second position, wherein when the housing is in its first position the cam is in its first position and wherein when the housing is in its second position the cam is in its second position, the first position of the cam being an aligned position wherein the cam aligns with the locking mechanism such that it can operate the locking mechanism and the second position is a misaligned position wherein said cam is out of alignment with the locking mechanism and cannot operate the locking mechanism. a cylinder lock housing for receipt within a bore in a support in use, the housing having a front end and a rear end, the housing having a first bore at its front end for receiving a first rotatable lock driving member for rotation within the first bore; a cam connectable to the first rotatable lock driving member for rotation therewith, said cam adapted to operate a locking mechanism on rotation of the cam; the cam having a first position and a second position, wherein the cam moves in a first direction relative to the support when moving from its first position to its second position; the cylinder lock further comprising biasing means (50, 58) for biasing the cam towards its second position; and holding means (40, 47) for holding the cam in its first position; the cylinder lock being adapted such that if the cylinder lock is tampered with by movement or breakage of the holding means, the housing is caused to move from a first position to a second position, said cam being carried by and adapted to move with the housing as the housing moves between a first position and a second position, wherein when the housing is in its first position the cam is in its first position and wherein when the housing is in its second position the cam is in its second position, the first position of the cam being an aligned position wherein the cam aligns with the locking mechanism such that it can operate the locking mechanism and the second position is a misaligned position wherein said cam is out of alignment with the locking mechanism and cannot operate the locking mechanism.
A method for producing an α-amidated peptide comprising the steps of: (i) allowing a target peptide with a C-terminal glycine residue to react with both a peptidylglycine alpha-hydroxylating monooxygenase and a polypeptide from a prokaryotic organism with peptidyl-α-hydroxyglycine alpha-amidating lyase activity under conditions suitable for enzymatic activity, wherein the reaction with said PHM and said polypeptide on said target peptide is performed either in two separate steps or simultaneously; (ii) recovering the C-terminally α-amidated peptide.
A method of providing bandwidth fairness in a wireless network, the method comprising: determining, for a particular service interval, bandwidth requirement for each of a plurality wireless stations in a network; and determining,, for the particular service interval, an allocated transmission time for each of the plurality of wireless stations based on the respective bandwidth requirement at a set physical transmission rate; fragmenting a packet for sending over multiple allocated transmission times by at least one of the wireless stations if, during the particular service interval, the at least one wireless station transmits at a lower transmission rate than the set physical transmission rate, the set physical transmission rate being fixed for the particular service interval. determining, for a particular service interval, bandwidth requirement for each of a plurality wireless stations in a network; and determining,, for the particular service interval, an allocated transmission time for each of the plurality of wireless stations based on the respective bandwidth requirement at a set physical transmission rate; fragmenting a packet for sending over multiple allocated transmission times by at least one of the wireless stations if, during the particular service interval, the at least one wireless station transmits at a lower transmission rate than the set physical transmission rate, the set physical transmission rate being fixed for the particular service interval.
A method for providing messaging bots (111, 113, 115) with location-based access to messaging clients, the method comprising: associating a plurality of messaging bots (111, 113, 115) with a plurality of geographic areas (121, 123, 125); monitoring (153, 155) a location of each messaging client of a plurality of messaging clients with respect to each geographic area (121, 123, 125) of the plurality of geographic areas (121, 123, 125); in response to when at least one of the messaging clients has entered a one of the plurality of geographic areas (121, 123, 125) as indicated by the location of the messaging client, granting (157, 159) a messaging bot (111, 113, 115) associated with the geographic area (121, 123, 125) with initial access to the messaging client, in order to initiate engagement with an end-user in a messaging conversation; and controlling subsequent access of the messaging bot (111, 113, 115) to the messaging client based at least in part on a level of engagement by the end-user with respect to the messaging conversation. associating a plurality of messaging bots (111, 113, 115) with a plurality of geographic areas (121, 123, 125); monitoring (153, 155) a location of each messaging client of a plurality of messaging clients with respect to each geographic area (121, 123, 125) of the plurality of geographic areas (121, 123, 125); in response to when at least one of the messaging clients has entered a one of the plurality of geographic areas (121, 123, 125) as indicated by the location of the messaging client, granting (157, 159) a messaging bot (111, 113, 115) associated with the geographic area (121, 123, 125) with initial access to the messaging client, in order to initiate engagement with an end-user in a messaging conversation; and controlling subsequent access of the messaging bot (111, 113, 115) to the messaging client based at least in part on a level of engagement by the end-user with respect to the messaging conversation.
A medical device having at least one touchscreen, characterized in that the touchscreen has two redundant sensors for detecting the position of a fingerprint on the touchscreen, at least one of the sensors comprising a plurality of piezo elements characterized in that the medical device is equipped to detect whether the optical display of the touchscreen is functioning, and in the event that it detects that the optical display of the touchscreen is not functioning, it controls the piezo elements in such a way that subareas of the touchscreen have different tactile properties.
A power module comprising: a sealed body in which a semiconductor chip-mounted conductor plate (315, 318, 319, 320) is sealed by a resin in such a manner that a heat dissipating surface (315, 318, 319, 320) of the conductor plate(315, 318, 319, 320) is exposed; a heat dissipating member (307A, 307B, 307, 307D) that is arranged to face the heat dissipating surface (315, 318, 319, 320); and an insulation layer that is arranged between the sealed body and the heat dissipating member (307A, 307B, 307, 307D), characterized in that the insulation layer has a laminated body that is made by laminating an impregnation resin-impregnated ceramic thermal spray film and a bonding resin layer in which a filler having good thermal conductivity is mixed, and that is provided to be in contact with the heat dissipating member (307A, 307B, 307, 307D) and at least the entirety of the heat dissipating surface(315, 318, 319, 320), and a stress relief resin portion that is provided in a gap between the heat dissipating member(307A, 307B, 307, 307D) and the sealed body to cover an entire circumferential end portion of the laminated body. a sealed body in which a semiconductor chip-mounted conductor plate (315, 318, 319, 320) is sealed by a resin in such a manner that a heat dissipating surface (315, 318, 319, 320) of the conductor plate(315, 318, 319, 320) is exposed; a heat dissipating member (307A, 307B, 307, 307D) that is arranged to face the heat dissipating surface (315, 318, 319, 320); and an insulation layer that is arranged between the sealed body and the heat dissipating member (307A, 307B, 307, 307D), characterized in that the insulation layer has a laminated body that is made by laminating an impregnation resin-impregnated ceramic thermal spray film and a bonding resin layer in which a filler having good thermal conductivity is mixed, and that is provided to be in contact with the heat dissipating member (307A, 307B, 307, 307D) and at least the entirety of the heat dissipating surface(315, 318, 319, 320), and a stress relief resin portion that is provided in a gap between the heat dissipating member(307A, 307B, 307, 307D) and the sealed body to cover an entire circumferential end portion of the laminated body. a laminated body that is made by laminating an impregnation resin-impregnated ceramic thermal spray film and a bonding resin layer in which a filler having good thermal conductivity is mixed, and that is provided to be in contact with the heat dissipating member (307A, 307B, 307, 307D) and at least the entirety of the heat dissipating surface(315, 318, 319, 320), and a stress relief resin portion that is provided in a gap between the heat dissipating member(307A, 307B, 307, 307D) and the sealed body to cover an entire circumferential end portion of the laminated body.
A drive member for driving a piston rod in a drug delivery device, the drive member having a longitudinal axis having a distal direction and a proximal direction, wherein the drive member is configured to be driven in a rotational movement around the longitudinal axis by an actuating member, wherein the drive member comprises a track having a contact face for transmitting a driving load from the actuating member to the drive member, wherein the track comprises both sections running in the distal direction and sections running In the proximal direction of the drive member, characterized in that the drive member comprises a bias track having a contact face for transmitting a load from a component of biasing means to the drive member for biasing the drive member towards a rotation around the longitudinal axis.
A piece of furniture, comprising an ejecting apparatus and a sensor apparatus for sensing a movement of a furniture part which is movable relative to a stationary furniture body in order to trigger the ejecting apparatus for the movable furniture part, characterized in that a) the sensor apparatus comprises a housing and a sensor plunger which is movable relative thereto and which is provided with at least one movable part of a transformer or capacitor that otherwise is arranged in an entirely or partly immobile stationary manner in the housing, or forms such a transformer or capacitor, and b) the sensor plunger is movable parallel or at least approximately parallel to the opening or closing direction of the movable furniture part on the housing of the sensor apparatus. a) the sensor apparatus comprises a housing and a sensor plunger which is movable relative thereto and which is provided with at least one movable part of a transformer or capacitor that otherwise is arranged in an entirely or partly immobile stationary manner in the housing, or forms such a transformer or capacitor, and b) the sensor plunger is movable parallel or at least approximately parallel to the opening or closing direction of the movable furniture part on the housing of the sensor apparatus.
Asymmetrically substituted phenanthrolines with the following structure 8. in which: R 1 and R 2 are independently selected from aryl and heteroaryl; R 3 is aryl or heteroaryl; R 4 is aryl, heteroaryl, alkyl with C 1 -C 20 or cycloalkyl with C 3 -C 20; R 5 is CN, COOalkyl, COaryl or COalkyl. R 1 and R 2 are independently selected from aryl and heteroaryl; R 3 is aryl or heteroaryl; R 4 is aryl, heteroaryl, alkyl with C 1 -C 20 or cycloalkyl with C 3 -C 20; R 5 is CN, COOalkyl, COaryl or COalkyl.
A tire comprising: a tread configured to come into contact with a road surface; a pair of sidewalls each connected to an end of the tread and located inward of the tread in a radial direction; a pair of beads each located inward of the sidewall in the radial direction, and a carcass located inward of the tread and the pair of sidewalls, wherein each bead includes a core and an apex located outward of the core in the radial direction, in a meridian cross-section in a state where the tire is fitted on a normal rim, an internal pressure of the tire is adjusted to 250 kPa, and no load is applied to the tire, a contour of each side surface including a maximum width position includes two arcs tangent to each other at the maximum width position, of the two arcs, the arc located inward of the maximum width position in the radial direction is a first arc, and the arc located outward of the maximum width position in the radial direction is a second arc, and a ratio (R1/R2) of a radius of the first arc to a radius of the second arc is not less than 70% and not greater than 91%, characterized in that a ratio (A/H) of a height of the apex to a cross-sectional height is not less than 5% and not greater than 15%, a tread configured to come into contact with a road surface; a pair of sidewalls each connected to an end of the tread and located inward of the tread in a radial direction; a pair of beads each located inward of the sidewall in the radial direction, and a carcass located inward of the tread and the pair of sidewalls, wherein each bead includes a core and an apex located outward of the core in the radial direction, in a meridian cross-section in a state where the tire is fitted on a normal rim, an internal pressure of the tire is adjusted to 250 kPa, and no load is applied to the tire, a contour of each side surface including a maximum width position includes two arcs tangent to each other at the maximum width position, of the two arcs, the arc located inward of the maximum width position in the radial direction is a first arc, and the arc located outward of the maximum width position in the radial direction is a second arc, and a ratio (R1/R2) of a radius of the first arc to a radius of the second arc is not less than 70% and not greater than 91%, characterized in that a ratio (A/H) of a height of the apex to a cross-sectional height is not less than 5% and not greater than 15%,
A method for predicting visual texture parameters of a paint having a known paint formulation, wherein visual texture parameters of the paint are determined by means of an artificial neural network on the basis of a plurality of different color components used in the paint formulation, where a value of at least one characteristic variable describing at least one optical property is determined by means of a physical model, based on physical properties of respective color components, for the known paint formulation, is assigned to the known paint formulation, and is transmitted to the artificial neural network as an input signal for determining the visual texture parameters, where the value determined and assigned to the known paint formulation describes the at least one optical property for the paint formulation, where color originals each with a known paint formulation having a plurality of color components are used for training the neural network, and, for each of the color originals, their respective visual texture parameters are measured and are assigned to a value of the at least one characteristic variable that is determined for the corresponding respective paint formulation and which describes the at least one optical property for that respective paint formulation, where the visual texture parameters are selected from the following list of texture parameters or a combination thereof: sparkle intensity, sparkle area, or distribution of graininess, characterized in that the value of the at least one characteristic variable is calculated for a respective paint formulation by using the physical model to calculate in each case at least one optical constant for all color components of the respective paint formulation and, on the basis of the respective optical constants for all color components of the paint formulation, calculating the value of the at least one characteristic variable of the paint formulation, and the artificial neural network has no direct link to individual color components of a respective paint and the training data to be used are based solely on the at least one optical property of different known paint formulations. where the visual texture parameters are selected from the following list of texture parameters or a combination thereof: sparkle intensity, sparkle area, or distribution of graininess, characterized in that the value of the at least one characteristic variable is calculated for a respective paint formulation by using the physical model to calculate in each case at least one optical constant for all color components of the respective paint formulation and, on the basis of the respective optical constants for all color components of the paint formulation, calculating the value of the at least one characteristic variable of the paint formulation, and the artificial neural network has no direct link to individual color components of a respective paint and the training data to be used are based solely on the at least one optical property of different known paint formulations.
A non-invasive device for rejuvenation of skin tissue, the non-invasive device comprising: a suction chamber having a skin contact surface comprising an opening for exposing the skin tissue to a treatment pressure (Pt) present in the suction chamber for applying a suction force to a portion of an outer surface of the skin tissue corresponding to an area of the opening, the treatment pressure (Pt) being lower than an ambient pressure outside the suction chamber, and the suction chamber being dimensioned so as to allow it to be manually applied to the outer surface of the skin tissue, and a controller for controlling a level of the treatment pressure (Pt) in the suction chamber and for controlling an application time interval (Δt) of the treatment pressure (Pt), characterized in that the controller is configured for controlling the level of the treatment pressure (Pt) in the suction chamber and for controlling the application time interval (Δt) of the treatment pressure (Pt) for damaging an interface between an epidermis layer and a dermis layer of the skin tissue to initiate rejuvenation of the skin tissue, wherein the area of the opening in the suction chamber is less than 10 square millimeters. a suction chamber having a skin contact surface comprising an opening for exposing the skin tissue to a treatment pressure (Pt) present in the suction chamber for applying a suction force to a portion of an outer surface of the skin tissue corresponding to an area of the opening, the treatment pressure (Pt) being lower than an ambient pressure outside the suction chamber, and the suction chamber being dimensioned so as to allow it to be manually applied to the outer surface of the skin tissue, and a controller for controlling a level of the treatment pressure (Pt) in the suction chamber and for controlling an application time interval (Δt) of the treatment pressure (Pt), characterized in that the controller is configured for controlling the level of the treatment pressure (Pt) in the suction chamber and for controlling the application time interval (Δt) of the treatment pressure (Pt) for damaging an interface between an epidermis layer and a dermis layer of the skin tissue to initiate rejuvenation of the skin tissue,
A sintered compact for use in making a cutting tool, comprising: 10 vol. % to 90 vol. % cubic boron nitride; and and a binder phase including one or more of Al 2 O 3, Si 3 N 4, TiN, TiC, TiCN; characterized in that the binder phase includes 0.1 vol. % to 10 vol. % a single or multiple layer nano-scale material and in that the single or multiple layer nano-scale material comprises at least one of graphene, MXene, white graphene and wherein MXene comprises transition metal carbides and carbonitrides and wherein the numerical values are plus or minus 10% of the number which is being used. 10 vol. % to 90 vol. % cubic boron nitride; and and a binder phase including one or more of Al 2 O 3, Si 3 N 4, TiN, TiC, TiCN; characterized in that the binder phase includes 0.1 vol. % to 10 vol. % a single or multiple layer nano-scale material and in that the single or multiple layer nano-scale material comprises at least one of graphene, MXene, white graphene and wherein MXene comprises transition metal carbides and carbonitrides and wherein the numerical values are plus or minus 10% of the number which is being used.