mhurhangee/patent-ind-claim-en huggingface dataset:
A flooring protecting overshoe comprising a sock of an elastically stretchable fabric having a mesh-structure, said overshoe comprising: - a heel , - an elastic flexible base , - a top , - opposite lateral parts , - said top including a toe-part and a mid-foot part , an opening giving access to the inside of said overshoe being delimited by said heel , said mid-foot part and said lateral parts , - said opening preferably being elongated and preferably having a length (L2) of at least 50%, preferably of between 50% and 65%, of the length (L1) of said overshoe , - said elastic flexible base comprising said fabric of said sock i) covered on a first side thereof by a cured elastomeric substance defining in a first flooring protecting configuration of said overshoe the outer face of said elastic flexible base and ii) fully or partially covered on a second side thereof by a cured elastomeric substance defining at least portions of the inner face of said elastic flexible base 13' oriented towards the inside of said overshoe , - said toe-part comprising said fabric of said sock covered on said first side thereof by a cured elastomeric substance defining the outer face of said toe-part , - said mid-foot part carrying no coating of elastomeric substance, wherein said overshoe is invertible, for bringing said overshoe into an inverted inside out second flooring protecting configuration where said outer face of said elastic flexible base is oriented towards the inside of said overshoe . - a heel , - an elastic flexible base , - a top , - opposite lateral parts , - said top including a toe-part and a mid-foot part , an opening giving access to the inside of said overshoe being delimited by said heel , said mid-foot part and said lateral parts , - said opening preferably being elongated and preferably having a length (L2) of at least 50%, preferably of between 50% and 65%, of the length (L1) of said overshoe , - said elastic flexible base comprising said fabric of said sock i) covered on a first side thereof by a cured elastomeric substance defining in a first flooring protecting configuration of said overshoe the outer face of said elastic flexible base and ii) fully or partially covered on a second side thereof by a cured elastomeric substance defining at least portions of the inner face of said elastic flexible base 13' oriented towards the inside of said overshoe , - said toe-part comprising said fabric of said sock covered on said first side thereof by a cured elastomeric substance defining the outer face of said toe-part , - said mid-foot part carrying no coating of elastomeric substance, wherein said overshoe is invertible, for bringing said overshoe into an inverted inside out second flooring protecting configuration where said outer face of said elastic flexible base is oriented towards the inside of said overshoe .
A method for self-calibrating a radar system , comprising: forming a calibration loop-back signal path comprising operating a switching device to electrically connect a transmit assembly to a receive assembly of the radar system , the calibration loop-back signal path being configured for determining a passband response of each of a radio frequency, RF, signal path , a local oscillator, LO, signal path , and an intermediate frequency, IF, signal path of the radar system ; transmitting a set of calibration signals into the RF signal path and the LO signal path ; measuring output signals from the IF signal path in a receiver of the radar system in response to the signals transmitted into the RF signal path and the LO signal path ; determining the passband response of each of the RF signal path , the LO signal path and the IF signal path from the measured output signals ; and compensating for distortions and/or non-linearities in the RF signal path , the LO signal path and the IF signal path using the passband response of each signal path; wherein transmitting the set of calibration signals into the RF signal path and the LO signal path comprises: transmitting a set of RF calibration signals into the RF signal path by a coupled transmit/local oscillator, TX/LO, waveform generator ; and transmitting an LO calibration signal into the LO signal path by the coupled TX/LO waveform generator ; and wherein the calibration signals each comprise a linear frequency modulated, LFM, pulse waveform . forming a calibration loop-back signal path comprising operating a switching device to electrically connect a transmit assembly to a receive assembly of the radar system , the calibration loop-back signal path being configured for determining a passband response of each of a radio frequency, RF, signal path , a local oscillator, LO, signal path , and an intermediate frequency, IF, signal path of the radar system ; transmitting a set of calibration signals into the RF signal path and the LO signal path ; measuring output signals from the IF signal path in a receiver of the radar system in response to the signals transmitted into the RF signal path and the LO signal path ; determining the passband response of each of the RF signal path , the LO signal path and the IF signal path from the measured output signals ; and compensating for distortions and/or non-linearities in the RF signal path , the LO signal path and the IF signal path using the passband response of each signal path; wherein transmitting the set of calibration signals into the RF signal path and the LO signal path comprises: transmitting a set of RF calibration signals into the RF signal path by a coupled transmit/local oscillator, TX/LO, waveform generator ; and transmitting an LO calibration signal into the LO signal path by the coupled TX/LO waveform generator ; and wherein the calibration signals each comprise a linear frequency modulated, LFM, pulse waveform .
An injection apparatus which injects an injection liquid containing a prescribed substance to an object region, the injection apparatus comprising: a storage unit which stores the injection liquid; a drive unit which imparts injection energy; a pressurization unit which pressurizes the injection liquid stored in the storage unit with the injection energy in the drive unit ; and an injection unit which injects the injection liquid having been pressurized by the pressurization unit to the object region through an injection port , wherein in a pressure transition of the injection liquid at the injection port a plurality of pressure vibration elements (S1 to S4) are present and a vibration in the pressure transition reaches a converged state within a prescribed period of time (Δt) from a rising time (T0) of pressure, and pressure reaches a peak value (Px1) thereof at a prescribed rate of increase in an initial first vibration element (S1) in the vibration within the prescribed period of time (Δt), or the vibration in the prescribed period of time (Δt) is a vibration at a frequency belonging to a prescribed frequency range, wherein the prescribed rate of increase is a rate at which pressure reaches 10 MPa, which is the peak value (P×1), or higher within 0.5 msec from the rising time (T0), and the prescribed frequency range is 500 to 10000 Hz, and the prescribed period of time (Δt) is a period of 2 msec or less from the rising time (T0). a storage unit which stores the injection liquid; a drive unit which imparts injection energy; a pressurization unit which pressurizes the injection liquid stored in the storage unit with the injection energy in the drive unit ; and an injection unit which injects the injection liquid having been pressurized by the pressurization unit to the object region through an injection port , wherein in a pressure transition of the injection liquid at the injection port a plurality of pressure vibration elements (S1 to S4) are present and a vibration in the pressure transition reaches a converged state within a prescribed period of time (Δt) from a rising time (T0) of pressure, and pressure reaches a peak value (Px1) thereof at a prescribed rate of increase in an initial first vibration element (S1) in the vibration within the prescribed period of time (Δt), or the vibration in the prescribed period of time (Δt) is a vibration at a frequency belonging to a prescribed frequency range, wherein the prescribed rate of increase is a rate at which pressure reaches 10 MPa, which is the peak value (P×1), or higher within 0.5 msec from the rising time (T0), and the prescribed frequency range is 500 to 10000 Hz, and the prescribed period of time (Δt) is a period of 2 msec or less from the rising time (T0).
A method for operating an hyphenated instrument comprising: a. conducting a first measurement of a sample using a first instrument ; b. generating a timing program based on the first measurement; c. controlling the size of a vacuum inlet of a second instrument according to the timing program; and d. conducting a second measurement of at least some part of the sample using the second instrument . a. conducting a first measurement of a sample using a first instrument ; b. generating a timing program based on the first measurement; c. controlling the size of a vacuum inlet of a second instrument according to the timing program; and d. conducting a second measurement of at least some part of the sample using the second instrument .
An automated analyzing device, comprising: a reagent vessel container that is capable of holding a plurality of reagent vessels ; an analysis means that performs a predetermined analysis by dispensing a sample to be analyzed and a reagent; and an expendable supply means that supplies an expendable used for analysis of each sample, wherein the expendable supply means includes a drawer that is supported so as to be horizontally movable in a front-rear direction between an open position and a closed position, a front-face opening through which the drawer can be moved between the open and closed positions, and a table that allows an expendable or a processing unit used for analysis to be mounted in the drawer, characterized in that the expendable supply means further includes a moving-direction transforming means that, while the drawer is moved toward a rear side from the open position to the closed position, moves horizontally until the expendable or the processing unit mounted on the table passes through the front-face opening from a front side to the rear side and moves the table toward an upper side in synchronization with horizontal movement of the drawer toward the rear side after the expendable or the processing unit mounted on the table passes through the front-face opening. a reagent vessel container that is capable of holding a plurality of reagent vessels ; an analysis means that performs a predetermined analysis by dispensing a sample to be analyzed and a reagent; and an expendable supply means that supplies an expendable used for analysis of each sample, wherein the expendable supply means includes a drawer that is supported so as to be horizontally movable in a front-rear direction between an open position and a closed position, a front-face opening through which the drawer can be moved between the open and closed positions, and a table that allows an expendable or a processing unit used for analysis to be mounted in the drawer, a drawer that is supported so as to be horizontally movable in a front-rear direction between an open position and a closed position, a front-face opening through which the drawer can be moved between the open and closed positions, and a table that allows an expendable or a processing unit used for analysis to be mounted in the drawer, characterized in that the expendable supply means further includes a moving-direction transforming means that, while the drawer is moved toward a rear side from the open position to the closed position, moves horizontally until the expendable or the processing unit mounted on the table passes through the front-face opening from a front side to the rear side and moves the table toward an upper side in synchronization with horizontal movement of the drawer toward the rear side after the expendable or the processing unit mounted on the table passes through the front-face opening.
Pane having an electric heating layer , comprising at least: - a first pane having a surface (III), - at least one electric heating layer that is applied at least on part of the surface (III) and includes an uncoated zone , - at least two busbars (5.1, 5.2) provided for connection to a voltage source , which are connected to the electric heating layer such that a current path for a heating current is formed between the busbars (5.1, 5.2), and - at least one separating line (9.n), which electrically subdivides the electric heating layer into at least two segments (10.n, 10.n+1), wherein at least one segment (10.n) is arranged in strip form around the uncoated zone such that the current path for the heating current is guided at least partially around the uncoated zone , wherein a third busbar (5.3) is arranged in direct electrical contact with the second busbar (5.2), which shortens the average length L n of at least one segment (10.n) and preferably the average length L n of all segments (10.n), or wherein each segment (10.n), which is arranged in strip from around the uncoated zone , has an own third busbar (5.3-5-6, 5.3'-5.6'), wherein each third busbar (5.3-5-6, 5.3'-5.6') is electrically conductively connected directly to the second busbar (5.2), or wherein a low-impedance bridge (15.n), which reduces the electrical resistance along the current path, is arranged in at least one segment (10.n). - a first pane having a surface (III), - at least one electric heating layer that is applied at least on part of the surface (III) and includes an uncoated zone , - at least two busbars (5.1, 5.2) provided for connection to a voltage source , which are connected to the electric heating layer such that a current path for a heating current is formed between the busbars (5.1, 5.2), and - at least one separating line (9.n), which electrically subdivides the electric heating layer into at least two segments (10.n, 10.n+1),
A method performed by a processing device, the method comprising: accessing network traffic from a network , wherein the network traffic is associated with a plurality of entities ; determining behavior associated with each entity of the plurality of entities, wherein the behavior is determined based on one or more communications associated with each entity; determining one or more clusters of entities based on entities having similar behavior, wherein a cluster comprises one or more entities with similar behavior; determining one or more access policies associated with each of the one or more clusters of entities; determining one or more anomalies based on the one or more clusters, wherein the one or more access policies control communications between entities of the one or more clusters based on the one or more anomalies; and storing data associated with at least one of the one or more clusters and the one or more anomalies. accessing network traffic from a network , wherein the network traffic is associated with a plurality of entities ; determining behavior associated with each entity of the plurality of entities, wherein the behavior is determined based on one or more communications associated with each entity; determining one or more clusters of entities based on entities having similar behavior, wherein a cluster comprises one or more entities with similar behavior; determining one or more access policies associated with each of the one or more clusters of entities; determining one or more anomalies based on the one or more clusters, wherein the one or more access policies control communications between entities of the one or more clusters based on the one or more anomalies; and storing data associated with at least one of the one or more clusters and the one or more anomalies.
A waveguide system (200; 300; 400; 500; 600; 700; 800) of a machine, the system comprising: a first node and a second node configured to establish a first communication path (206A; 306A; 406A; 606A; 706A; 806A) through the waveguide system (200; 300; 400; 500; 600; 700; 800) to guide a radio frequency transmission between the first node and the second node in the machine; and a third node and a fourth node configured to establish a second communication path (206B; 306B; 406B; 606B; 706B; 806B) in the machine, wherein the first node is grouped with the third node as a first node group , and the second node is grouped with the fourth node as a second node group such that the second communication path provides a redundant communication path with respect to the first communication path for communication between the first node group and the second node group; the system characterised in that the waveguide system comprises a debris shield of material configured to survive a ballistic impact. a first node and a second node configured to establish a first communication path (206A; 306A; 406A; 606A; 706A; 806A) through the waveguide system (200; 300; 400; 500; 600; 700; 800) to guide a radio frequency transmission between the first node and the second node in the machine; and a third node and a fourth node configured to establish a second communication path (206B; 306B; 406B; 606B; 706B; 806B) in the machine, wherein the first node is grouped with the third node as a first node group , and the second node is grouped with the fourth node as a second node group such that the second communication path provides a redundant communication path with respect to the first communication path for communication between the first node group and the second node group; the system characterised in that the waveguide system comprises a debris shield of material configured to survive a ballistic impact.
A system , comprising: a network interface; and a processor , coupled to the network interface, the processor configured: to identify, via the network interface, a state of congestion in a communication channel between [i] a base station belonging to a cellular network and [ii] a client device that is downloading a video, which is encoded at a plurality of different predefined encoding bit rates, from a server via the base station and the communication channel, to estimate a current communication bit rate at which content is being downloaded by the client device, to calculate, responsively to the state of congestion, a maximum sustainable encoding bit rate, MSEBR, for the video as a weighted average of [i] a most recent MSEBR and [ii] a quantity based on the estimated current communication bit rate at which content is being downloaded by the client device, , and to inhibit the client device, in response to calculating the MSEBR, from downloading a segment of the video that is encoded at any one of the predefined bit rates that exceeds the MSEBR. a network interface; and a processor , coupled to the network interface, the processor configured: to identify, via the network interface, a state of congestion in a communication channel between [i] a base station belonging to a cellular network and [ii] a client device that is downloading a video, which is encoded at a plurality of different predefined encoding bit rates, from a server via the base station and the communication channel, to estimate a current communication bit rate at which content is being downloaded by the client device, to calculate, responsively to the state of congestion, a maximum sustainable encoding bit rate, MSEBR, for the video as a weighted average of [i] a most recent MSEBR and [ii] a quantity based on the estimated current communication bit rate at which content is being downloaded by the client device, , and to inhibit the client device, in response to calculating the MSEBR, from downloading a segment of the video that is encoded at any one of the predefined bit rates that exceeds the MSEBR. to identify, via the network interface, a state of congestion in a communication channel between [i] a base station belonging to a cellular network and [ii] a client device that is downloading a video, which is encoded at a plurality of different predefined encoding bit rates, from a server via the base station and the communication channel, to estimate a current communication bit rate at which content is being downloaded by the client device, to calculate, responsively to the state of congestion, a maximum sustainable encoding bit rate, MSEBR, for the video as a weighted average of [i] a most recent MSEBR and [ii] a quantity based on the estimated current communication bit rate at which content is being downloaded by the client device, , and to inhibit the client device, in response to calculating the MSEBR, from downloading a segment of the video that is encoded at any one of the predefined bit rates that exceeds the MSEBR.
A catalyst for methanol production using carbon oxides as a raw material, which comprises copper, zinc, aluminum and silicon and has the following properties: (A) the molar ratio of zinc to copper is 0.5 to 0.7, (B) the molar ratio of silicon to copper is 0.015 to 0.05, (C) the catalyst comprises CuO and ZnO, and the maximum intensity ratio of a peak derived from the ZnO to a peak derived from the CuO, as measured by XRD by the method described in the description in combination with Figure 1, is not more than 0.25, (D) the half-value width (2Θ) of a peak at about 39° derived from the CuO, as measured by XRD, is 0.75 to 2.5, and (E) the content of zirconium is 0 to 0.1 mol%. (A) the molar ratio of zinc to copper is 0.5 to 0.7, (B) the molar ratio of silicon to copper is 0.015 to 0.05, (C) the catalyst comprises CuO and ZnO, and the maximum intensity ratio of a peak derived from the ZnO to a peak derived from the CuO, as measured by XRD by the method described in the description in combination with Figure 1, is not more than 0.25, (D) the half-value width (2Θ) of a peak at about 39° derived from the CuO, as measured by XRD, is 0.75 to 2.5, and (E) the content of zirconium is 0 to 0.1 mol%.
A substrate coated with a carbon-nanotube-based composite coating, the carbon-nanotube-based composite coating comprising a layer of non-aligned carbon nanotubes, characterized in that the carbon nanotubes are CVD-grown on said substrate and comprise metal oxide claddings that sheathe the carbon nanotubes.