mhurhangee/ep-ind-claims huggingface dataset:
A temperature control apparatus for a polymerize chain reaction, PCR, chip, the temperature control apparatus comprising: PCR chips (1051, 1052) for receiving electric power from the outside and generating heat to maintain a predetermined temperature and for outputting actual temperature information to the outside; electric power supply units (1041, 1042) for supplying electric power to the PCR chips according to input control signals; a controller for generating the control signals based on control information including pre-established control temperature and control time information and the actual temperature information supplied from the PCR chips in order to supply the control signals to the electric power supply units; a selector for receiving a first selection signal for selecting the PCR chip to be controlled and the control signal from the controller, in order to select the electric power supply unit for supplying the electric power to the PCR chip to be controlled and supply the control signal to the selected electric power supply unit, wherein the first selection signal is an address signal for selecting the PCR chip, and wherein the selector comprises a decoder and latches (40301,..., 40316), wherein the decoder is configured for supplying the address signal to the latches; and a multiplexer for receiving a second selection signal for selecting one of the PCR chips from the controller and supplying the actual temperature information on a predetermined PCR chip to the controller according to the second selection signal. PCR chips (1051, 1052) for receiving electric power from the outside and generating heat to maintain a predetermined temperature and for outputting actual temperature information to the outside; electric power supply units (1041, 1042) for supplying electric power to the PCR chips according to input control signals; a controller for generating the control signals based on control information including pre-established control temperature and control time information and the actual temperature information supplied from the PCR chips in order to supply the control signals to the electric power supply units; a selector for receiving a first selection signal for selecting the PCR chip to be controlled and the control signal from the controller, in order to select the electric power supply unit for supplying the electric power to the PCR chip to be controlled and supply the control signal to the selected electric power supply unit, wherein the first selection signal is an address signal for selecting the PCR chip, and wherein the selector comprises a decoder and latches (40301,..., 40316), wherein the decoder is configured for supplying the address signal to the latches; and a multiplexer for receiving a second selection signal for selecting one of the PCR chips from the controller and supplying the actual temperature information on a predetermined PCR chip to the controller according to the second selection signal.
A method of determining a reference depth level within a cell sample that comprises predominantly red blood cells that are essentially arranged in a monolayer, the method comprising: - obtaining data representative of a series of images captured by performing a depth scan of the cell sample that comprises predominantly red blood cells using a digital microscope, the series of images being associated with a series of depth levels of the cell sample; - processing said data to generate an image variance curve, which represents the values of a contrast function as a function of the Z-coordinate of a focus plane of the digital microscope during the depth scan; - detecting a well within the variance curve; and - identifying the depth level corresponding to the minimum of the well as the reference depth level. - obtaining data representative of a series of images captured by performing a depth scan of the cell sample that comprises predominantly red blood cells using a digital microscope, the series of images being associated with a series of depth levels of the cell sample; - processing said data to generate an image variance curve, which represents the values of a contrast function as a function of the Z-coordinate of a focus plane of the digital microscope during the depth scan; - detecting a well within the variance curve; and - identifying the depth level corresponding to the minimum of the well as the reference depth level.
A system for verifying turbojet engine parts, the turbojet engine being accommodated in a nacelle compartment delimited by a nacelle wall and including at least one part equipped with an RFID tag, the verification system (11, 12) being characterized in that it comprises: ▪ an inner antenna (112, 212) accommodated in the nacelle compartment, the inner antenna being arranged to allow the exchange of radiofrequency signals with the RFID tag, ▪ an interface device (111, 211) located at least partially inside the nacelle compartment and including an access point (1114, 1115, 2114, 2115) located outside the nacelle compartment, the interface device being arranged to be able to be connected to an interrogator device arranged to communicate with the RFID tag, and ▪ a transmission line (113, 213) connecting the interface device (111, 211) to the inner antenna (112, 212). ▪ an inner antenna (112, 212) accommodated in the nacelle compartment, the inner antenna being arranged to allow the exchange of radiofrequency signals with the RFID tag, ▪ an interface device (111, 211) located at least partially inside the nacelle compartment and including an access point (1114, 1115, 2114, 2115) located outside the nacelle compartment, the interface device being arranged to be able to be connected to an interrogator device arranged to communicate with the RFID tag, and ▪ a transmission line (113, 213) connecting the interface device (111, 211) to the inner antenna (112, 212).
A Device for cutting parallel bearing bars in a grating consisting of bearing bars and cross bars arranged perpendicular to the bearing bars, comprising a knife block, which is provided with a cutting knife arranged in parallel to the cross bars with serrated cutting teeth, where the cutting teeth have diagonally-running cutting edges in relation to the grating plane so that the cutting teeth are broader at their bases (16") than at their tops, characterized in that the device comprises a counter-holder, with the grating being suitable for feeding between the cutting knife and the counter-holder, and in that preliminary knives (17, 18) with serrated cutting teeth (17a, 18a) and spaces (17b, 18b) between the teeth in which to receive the bearing bars are arranged on both sides of the cutting knife, with the two preliminary knives (17, 18) being movable in one direction perpendicular to the grating plane for cutting the bearing bars so that the bearing bars can be introduced through the spaces (17b, 18b) between the teeth of the preliminary knives (17, 18), and the cutting knife also being movable in one direction perpendicular to the grating plane so that the cutting teeth of the cutting knife interact scissor-like with the cutting teeth (17a, 18a) of the two preliminary knives (17, 18) for cutting the bearing bars.
A method by a core network node of a core network of a wireless communication system for authenticating a user equipment, UE, to the core network, comprising: receiving a first authentication request to authenticate the UE to the core network; transmitting an identifier associated with the UE to a second core network node in response to receiving the first authentication request; receiving a message from a second core network node instructing the core network node to transmit the authentication request to an external authentication entity; determining that the UE should be authenticated by the external authentication entity that is external to the wireless communication system; transmitting a second authentication request to the external authentication entity, the second authentication request identifying the UE; receiving an authentication response from the external authentication entity verifying authenticity of the UE, the authentication response including a master key; and deriving a first key for securing communications with the UE from the master key. receiving a first authentication request to authenticate the UE to the core network; transmitting an identifier associated with the UE to a second core network node in response to receiving the first authentication request; receiving a message from a second core network node instructing the core network node to transmit the authentication request to an external authentication entity; determining that the UE should be authenticated by the external authentication entity that is external to the wireless communication system; transmitting a second authentication request to the external authentication entity, the second authentication request identifying the UE; receiving an authentication response from the external authentication entity verifying authenticity of the UE, the authentication response including a master key; and deriving a first key for securing communications with the UE from the master key.
A combination of a table with a table frame (4, 5, 6) and a table top, together with at least one lamp with a variable light intensity, wherein - the table top is designed to be variable in height, and wherein - the lamp is connected to the table frame (4, 5, 6), wherein - the table frame (4, 5, 6) is composed of at least two table columns, in each case predominantly vertically oriented, and related feet, and wherein - the lamp is connected to an upright (10, 11), the foot of which is accommodated in a table column, characterised in that, - the light intensity of the lamp for purposes of illuminating the table top is adjusted as a function of its height position, such that the illumination intensity at the location of the table top remains essentially the same, and in that - the upright passes through the table top, in particular taking account of an opening in the table top. - the table top is designed to be variable in height, and wherein - the lamp is connected to the table frame (4, 5, 6), wherein - the table frame (4, 5, 6) is composed of at least two table columns, in each case predominantly vertically oriented, and related feet, and wherein - the lamp is connected to an upright (10, 11), the foot of which is accommodated in a table column, - the light intensity of the lamp for purposes of illuminating the table top is adjusted as a function of its height position, such that the illumination intensity at the location of the table top remains essentially the same, and in that - the upright passes through the table top, in particular taking account of an opening in the table top.
Operating method for a computer of a computer network, wherein the computer network has a number of workstations, via which a respective user executes at least one respective application while processing respective useful data, wherein the computer executes a resource management program, wherein the computer, on the basis of the execution of the resource management program, - at least when starting the respective application, automatically determines a resource requirement for the respective application on the basis of application data predefined for the respective application, - automatically requests resources at a cloud computer, which manages resources of a cloud, according to the determined resource requirement, - automatically receives an allocation of resources from the cloud computer on the basis of the request, wherein the allocation contains the access data which is required in order to be able to access the allocated resources, - automatically allocates the resources, which were allocated on the basis of the request for the respective application, to the respective application, - starting from the allocation of the resources to the respective application, automatically monitors whether a respective release condition, which is dependent upon the respective application, but not other applications, occurs for the resources allocated to the respective application, - maintains the allocation of the resources, which were allocated to the respective application, to the respective application until the respective release condition is met, and - when the respective release condition occurs, automatically returns the resources allocated to the respective application to the cloud. - at least when starting the respective application, automatically determines a resource requirement for the respective application on the basis of application data predefined for the respective application, - automatically requests resources at a cloud computer, which manages resources of a cloud, according to the determined resource requirement, - automatically receives an allocation of resources from the cloud computer on the basis of the request, wherein the allocation contains the access data which is required in order to be able to access the allocated resources, - automatically allocates the resources, which were allocated on the basis of the request for the respective application, to the respective application, - starting from the allocation of the resources to the respective application, automatically monitors whether a respective release condition, which is dependent upon the respective application, but not other applications, occurs for the resources allocated to the respective application, - maintains the allocation of the resources, which were allocated to the respective application, to the respective application until the respective release condition is met, and - when the respective release condition occurs, automatically returns the resources allocated to the respective application to the cloud.
A tire, comprising: a plurality of circumferential grooves extending in a tire circumferential direction; a plurality of lug grooves extending in a tire width direction; a plurality of land portions defined by the circumferential grooves and the lug grooves; a circumferential narrow groove that extends in the tire circumferential direction and is disposed in the land portion; the circumferential groove positioned on an inner side in the tire width direction among the two circumferential grooves (31, 35) that define both the sides in the tire width direction of the land portion in which the circumferential narrow groove is disposed having an amplitude in the tire width direction while extending in the tire circumferential direction to be formed in a zigzag shape comprising a long portion and a short portion having relatively different lengths, the circumferential narrow groove having one or more bent portions where an extension direction changes in the land portion to comprise a long portion and a short portion having relatively different lengths, and the long portion of the circumferential narrow groove has an inclination direction in the tire width direction with respect to the tire circumferential direction in a direction opposite to the long portion of the circumferential groove, characterized in that both of the two circumferential grooves (31, 35) that define both sides in the tire width direction of the land portion in which the circumferential narrow groove is disposed are formed in a zigzag shape. a plurality of circumferential grooves extending in a tire circumferential direction; a plurality of lug grooves extending in a tire width direction; a plurality of land portions defined by the circumferential grooves and the lug grooves; a circumferential narrow groove that extends in the tire circumferential direction and is disposed in the land portion; the circumferential groove positioned on an inner side in the tire width direction among the two circumferential grooves (31, 35) that define both the sides in the tire width direction of the land portion in which the circumferential narrow groove is disposed having an amplitude in the tire width direction while extending in the tire circumferential direction to be formed in a zigzag shape comprising a long portion and a short portion having relatively different lengths, the circumferential narrow groove having one or more bent portions where an extension direction changes in the land portion to comprise a long portion and a short portion having relatively different lengths, and the long portion of the circumferential narrow groove has an inclination direction in the tire width direction with respect to the tire circumferential direction in a direction opposite to the long portion of the circumferential groove, characterized in that both of the two circumferential grooves (31, 35) that define both sides in the tire width direction of the land portion in which the circumferential narrow groove is disposed are formed in a zigzag shape.
A damping resonator cooling apparatus comprising: a liner bounding a flow path of a turbine working gas; an acoustic damping resonator (24, 24A, 24B) welded to the liner; a cover (54A, 54B, 54C, 54D, 54F) enclosing the resonator (24, 24A, 24B) and providing an airflow clearance between the cover (54A, 54B, 54C, 54D, 54F) and the resonator (24, 24A, 24B); and a coolant inlet chamber on an upstream end of the cover (54A, 54B, 54C, 54D, 54F) relative to a flow direction of the working gas; wherein when a compressed air surrounds the cover (54A, 54B, 54C, 54D, 54F) at a higher pressure than a pressure of the working gas, the compressed air passes into the coolant inlet chamber through an inlet (60, 61, 62) and flows past an upstream weld of the resonator (24, 24A, 24B) to the liner, the resonator (24, 24A, 24B) comprising: a resonating cavity with a top wall separated from the liner by a first height; air inlet holes in the top wall of the resonator (24, 24A, 24B); air outlet holes through the liner from the resonating cavity; and wherein the coolant inlet chamber is formed by an impingement box comprising: a top wall separated from the liner by a second height; and impingement inlet holes (60, 61, 62) in the top wall of the impingement box, characterized in that the second height is less than the first height. a liner bounding a flow path of a turbine working gas; an acoustic damping resonator (24, 24A, 24B) welded to the liner; a cover (54A, 54B, 54C, 54D, 54F) enclosing the resonator (24, 24A, 24B) and providing an airflow clearance between the cover (54A, 54B, 54C, 54D, 54F) and the resonator (24, 24A, 24B); and a coolant inlet chamber on an upstream end of the cover (54A, 54B, 54C, 54D, 54F) relative to a flow direction of the working gas; wherein when a compressed air surrounds the cover (54A, 54B, 54C, 54D, 54F) at a higher pressure than a pressure of the working gas, the compressed air passes into the coolant inlet chamber through an inlet (60, 61, 62) and flows past an upstream weld of the resonator (24, 24A, 24B) to the liner, the resonator (24, 24A, 24B) comprising: a resonating cavity with a top wall separated from the liner by a first height; air inlet holes in the top wall of the resonator (24, 24A, 24B); air outlet holes through the liner from the resonating cavity; and wherein the coolant inlet chamber is formed by an impingement box comprising: a top wall separated from the liner by a second height; and impingement inlet holes (60, 61, 62) in the top wall of the impingement box, a resonating cavity with a top wall separated from the liner by a first height; air inlet holes in the top wall of the resonator (24, 24A, 24B); air outlet holes through the liner from the resonating cavity; and wherein the coolant inlet chamber is formed by an impingement box comprising: a top wall separated from the liner by a second height; and impingement inlet holes (60, 61, 62) in the top wall of the impingement box, a top wall separated from the liner by a second height; and impingement inlet holes (60, 61, 62) in the top wall of the impingement box,
An inertial force sensor comprising: - an oscillator having a driving electrode, a monitor electrode, and a detecting electrode; - a driving circuit configured to apply a driving signal to the driving electrode to oscillate the oscillator; - a detecting circuit configured to detect an angular speed according to a detecting signal outputted from the detecting electrode due to an inertial force in a normal mode; - an oscillation control circuit configured to control an energization amount of the driving signal according to a monitor signal outputted from the monitor electrode; - a fault diagnosing circuit configured to input a pseudo angular speed signal to the detecting circuit for fault diagnosis, characterised in that: - said detecting circuit comprises a filter circuit configured to filter the detecting signal; and further characterised in that the sensor comprises a clock frequency switching circuit configured to input a clock to the filter circuit in order to control said filter circuit either at a first clock frequency (fckl1) or at a second clock frequency (fckl2) higher than the first clock frequency, a response time of the filter circuit being determined by the inputted clock frequency among the first clock frequency (fckl1) and the second clock frequency (fckl2); wherein - when in the normal mode, the clock having the first clock frequency (fclk1) is inputted to filter circuit to control said filter circuit, - when in a fault diagnosis mode, the pseudo angular speed signal outputted from the fault diagnosing circuit is inputted to the detecting circuit and the clock having the second clock frequency (fclk2) is inputted to filter circuit to control said filter circuit so as to shorten a delay time of the filter circuit. - an oscillator having a driving electrode, a monitor electrode, and a detecting electrode; - a driving circuit configured to apply a driving signal to the driving electrode to oscillate the oscillator; - a detecting circuit configured to detect an angular speed according to a detecting signal outputted from the detecting electrode due to an inertial force in a normal mode; - an oscillation control circuit configured to control an energization amount of the driving signal according to a monitor signal outputted from the monitor electrode; - a fault diagnosing circuit configured to input a pseudo angular speed signal to the detecting circuit for fault diagnosis, - said detecting circuit comprises a filter circuit configured to filter the detecting signal; - when in the normal mode, the clock having the first clock frequency (fclk1) is inputted to filter circuit to control said filter circuit, - when in a fault diagnosis mode, the pseudo angular speed signal outputted from the fault diagnosing circuit is inputted to the detecting circuit and the clock having the second clock frequency (fclk2) is inputted to filter circuit to control said filter circuit so as to shorten a delay time of the filter circuit.