mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a machine tool , in particular a sander, wherein the machine tool comprises a control apparatus, a drive, a tool which is driven by the drive, for example an abrasive means, an operating switch and also a lock switch, characterized by the process steps of: - activating the operating switch by exerting a force in a direction (N) onto the operating switch for switching over the machine tool from a deactivation mode to an activation mode, so that the drive is adjusted to a first predetermined rotation speed value; - deactivating the operating switch , so that no more force is exerted in direction (N) onto the operating switch , wherein the drive is adjusted into the first predetermined rotation speed value for a predetermined time period; - activating the lock switch within the first predetermined time period after deactivation of the operating switch , so that the drive is adjusted to a predetermined second rotation speed value; and - activating the operating switch by exerting a force in a direction (N) onto the operating switch or activating the lock switch by exerting a force in a direction (N) onto the lock switch for switching over the machine tool from the activation mode to the deactivation mode. - activating the operating switch by exerting a force in a direction (N) onto the operating switch for switching over the machine tool from a deactivation mode to an activation mode, so that the drive is adjusted to a first predetermined rotation speed value; - deactivating the operating switch , so that no more force is exerted in direction (N) onto the operating switch , wherein the drive is adjusted into the first predetermined rotation speed value for a predetermined time period; - activating the lock switch within the first predetermined time period after deactivation of the operating switch , so that the drive is adjusted to a predetermined second rotation speed value; and - activating the operating switch by exerting a force in a direction (N) onto the operating switch or activating the lock switch by exerting a force in a direction (N) onto the lock switch for switching over the machine tool from the activation mode to the deactivation mode.
Method for printing a Quality Assurance print chart, QA chart, comprising the steps of: - determining the maximum print width for at least one media sheet (201-204) to be printed subsequently to the printing of the QA chart , characterized by - selecting from a plurality of media types designated as being suitable for QA charts, a media type that has substantially the same or a greater media width as the determined print width for the at least one media sheet to be printed subsequently , - setting a print width for the QA chart substantially to the determined print width , and - printing the QA chart with the set print width on the selected media type . - determining the maximum print width for at least one media sheet (201-204) to be printed subsequently to the printing of the QA chart , characterized by - selecting from a plurality of media types designated as being suitable for QA charts, a media type that has substantially the same or a greater media width as the determined print width for the at least one media sheet to be printed subsequently , - setting a print width for the QA chart substantially to the determined print width , and - printing the QA chart with the set print width on the selected media type .
A platform comprising: a platform cooling apparatus comprising a first cooling chamber (234-1) and a second cooling chamber (234-2) separated and fluidically isolated from each other by a first dividing rib , and disposed at least partially through the platform , and configured to conduct cooling air, wherein the platform cooling apparatus further comprises a first outflow aperture comprising an orifice extending in fluidic communication between the first cooling chamber (234-1) and through at least a portion of the platform and in fluidic communication with a surrounding ambient environment immediately proximate to an external surface of the platform ; and a cooling cover apparatus at least partially fluidically sealing the platform cooling apparatus , characterised in that : the first dividing rib comprises a planar structure. a platform cooling apparatus comprising a first cooling chamber (234-1) and a second cooling chamber (234-2) separated and fluidically isolated from each other by a first dividing rib , and disposed at least partially through the platform , and configured to conduct cooling air, wherein the platform cooling apparatus further comprises a first outflow aperture comprising an orifice extending in fluidic communication between the first cooling chamber (234-1) and through at least a portion of the platform and in fluidic communication with a surrounding ambient environment immediately proximate to an external surface of the platform ; and a cooling cover apparatus at least partially fluidically sealing the platform cooling apparatus , characterised in that : the first dividing rib comprises a planar structure.
A method comprising: receiving sensor information from a first primary sensor, the first primary sensor positioned to receive information from a first portion of an industrial operation; receiving first sensor information from one or more secondary sensors, the one or more secondary sensors are arranged to provide additional information about the first portion of the industrial operation monitored by the first primary sensor indicative of current operating conditions of the first portion of the industrial operation; using the sensor information from the one or more secondary sensors to identify a transient condition; using the sensor information from the one or more secondary sensors and a machine learning algorithm to determine if the first portion of the industrial operation is operating in a normal or abnormal condition; and in response to determining that the first portion of the industrial operation is operating in a normal condition, using sensor information from the first primary sensor during the determined normal operating condition excluding the sensor information of the first primary sensor during a transient condition to derive a primary sensor signature to use for identifying abnormal conditions for the sensor information from the first primary sensor. receiving sensor information from a first primary sensor, the first primary sensor positioned to receive information from a first portion of an industrial operation; receiving first sensor information from one or more secondary sensors, the one or more secondary sensors are arranged to provide additional information about the first portion of the industrial operation monitored by the first primary sensor indicative of current operating conditions of the first portion of the industrial operation; using the sensor information from the one or more secondary sensors to identify a transient condition; using the sensor information from the one or more secondary sensors and a machine learning algorithm to determine if the first portion of the industrial operation is operating in a normal or abnormal condition; and in response to determining that the first portion of the industrial operation is operating in a normal condition, using sensor information from the first primary sensor during the determined normal operating condition excluding the sensor information of the first primary sensor during a transient condition to derive a primary sensor signature to use for identifying abnormal conditions for the sensor information from the first primary sensor.
An apparatus comprising: means for obtaining at least three ambient audio signals wherein at least one of the ambient audio signals is to be processed with a first directional transfer function pair and at least one other of the ambient audio signals is to be processed with a second directional transfer function pair wherein the directional transfer function pairs to be used are based on target directions of the ambient audio signals; means for determining a change of the target direction for the at least one ambient audio signal to an updated target direction; means for selecting an updated directional transfer function pair associated with the updated target direction wherein the updated directional transfer function pair is selected from a plurality of directional transfer functions and the updated directional transfer function pair is more closely associated with the updated target direction than the first directional transfer function pair, and wherein the second directional transfer function pair which is used for the at least one other ambient signal is not updated; and means for processing the at least one ambient audio signal with the selected updated directional transfer function pair and processing the at least one other ambient audio signal with the second directional transfer function pair. means for obtaining at least three ambient audio signals wherein at least one of the ambient audio signals is to be processed with a first directional transfer function pair and at least one other of the ambient audio signals is to be processed with a second directional transfer function pair wherein the directional transfer function pairs to be used are based on target directions of the ambient audio signals; means for determining a change of the target direction for the at least one ambient audio signal to an updated target direction; means for selecting an updated directional transfer function pair associated with the updated target direction wherein the updated directional transfer function pair is selected from a plurality of directional transfer functions and the updated directional transfer function pair is more closely associated with the updated target direction than the first directional transfer function pair, and wherein the second directional transfer function pair which is used for the at least one other ambient signal is not updated; and means for processing the at least one ambient audio signal with the selected updated directional transfer function pair and processing the at least one other ambient audio signal with the second directional transfer function pair.
A device for stimulating tear secretion, the device comprising: a container body (10A-10N, 10X-10Z) including a rim capable of coming into close contact with a face in a region around an eye, the container body (10A-10N, 10X-10Z) defining therein a gas-receiving space (70A-70M) capable of being filled with gas generated by an eye irritant, characterised in the container body (10A-10N, 10X-10z) having an access opening through which an inside of the container body (10A-10N, 10X-10Z) is accessible from an outside when the rim of the container body (10A-10N, 10X-10Z) is in close contact with the face in the region around the eye. a container body (10A-10N, 10X-10Z) including a rim capable of coming into close contact with a face in a region around an eye, the container body (10A-10N, 10X-10Z) defining therein a gas-receiving space (70A-70M) capable of being filled with gas generated by an eye irritant, characterised in the container body (10A-10N, 10X-10z) having an access opening through which an inside of the container body (10A-10N, 10X-10Z) is accessible from an outside when the rim of the container body (10A-10N, 10X-10Z) is in close contact with the face in the region around the eye.
A cartridge for an e-vaping device, the cartridge comprising: an ethanol-free gel formulation, wherein the ethanol-free gel formulation does not include ethanol, the ethanol-free gel formulation including, a vapor former; water; and a biopolymer included in an amount ranging from about 0.2% by weight based on the weight of the ethanol-free gel formulation to about 0.4% by weight based on the weight of the ethanol-free gel formulation, the biopolymer being one or more of agar, kappa carrageenan, gelatin, sodium alginate, gellan gum, pectin, and combinations thereof; and a heater configured to heat the ethanol-free gel formulation to form a vapor. an ethanol-free gel formulation, wherein the ethanol-free gel formulation does not include ethanol, the ethanol-free gel formulation including, a vapor former; water; and a biopolymer included in an amount ranging from about 0.2% by weight based on the weight of the ethanol-free gel formulation to about 0.4% by weight based on the weight of the ethanol-free gel formulation, the biopolymer being one or more of agar, kappa carrageenan, gelatin, sodium alginate, gellan gum, pectin, and combinations thereof; and a vapor former; water; and a biopolymer included in an amount ranging from about 0.2% by weight based on the weight of the ethanol-free gel formulation to about 0.4% by weight based on the weight of the ethanol-free gel formulation, the biopolymer being one or more of agar, kappa carrageenan, gelatin, sodium alginate, gellan gum, pectin, and combinations thereof; and a heater configured to heat the ethanol-free gel formulation to form a vapor.
A method for implementing a Primary Synchronization Signal, PSS, in a time domain, pre-storing PSS time domain sequences with different sampling rates and different N ID 2 configurations, where a value of N ID 2 is selected from , wherein the method further comprises: obtaining a PSS time domain power weighting related parameter according to a PSS power control related parameter, a cell related parameter and timing information; performing power weighting processing on the pre-stored PSS time domain sequences with different sampling rates and different N ID 2 configurations to obtain weighted PSS time domain sequences according to the pre-stored PSS time domain sequences with different sampling rates and different N ID 2 configurations and the PSS time domain power weighting related parameter; and performing addition operation on the weighted PSS time domain sequences and time domain data of signals and channels except the PSS to obtain processed time domain data. obtaining a PSS time domain power weighting related parameter according to a PSS power control related parameter, a cell related parameter and timing information; performing power weighting processing on the pre-stored PSS time domain sequences with different sampling rates and different N ID 2 configurations to obtain weighted PSS time domain sequences according to the pre-stored PSS time domain sequences with different sampling rates and different N ID 2 configurations and the PSS time domain power weighting related parameter; and performing addition operation on the weighted PSS time domain sequences and time domain data of signals and channels except the PSS to obtain processed time domain data.
Device for setting the miter angle of a machine tool , in particular a circular saw, containing - a clamping block comprising at least one slot ; and - a pivot lever on which the machine tool can be mounted, and which is mounted such that it is pivotable about a pivot point relative to the clamping block between a minimum miter angle and a maximum miter angle, the slot containing at least two stop elements positioned so as to be offset from one another and a setting mechanism comprising a lever element being provided for selecting a maximum miter angle, the lever element containing a counter stop element which, according to the rotational alignment of the lever element , can be aligned in such a way that the counter stop element can strike the relevant stop element according to the selected maximum miter angle, as a result of which the pivoting movement of the pivot lever relative to the clamping block can be limited so as to set the maximum miter angle, characterized in that the slot contains three stop elements positioned so as to be offset from one another, it being possible to align the counter stop element in the first slot such that the counter stop element strikes the first stop element , the second stop element or the third stop element so as to fix the relevant maximum miter angle and the setting mechanism containing a display and limitation element which contains a display scale and an elongate recess , the display scale being used to display the selectable maximum miter angle and the elongate recess being used to guide and limit the rotational movement of the counter stop element . - a clamping block comprising at least one slot ; and - a pivot lever on which the machine tool can be mounted, and which is mounted such that it is pivotable about a pivot point relative to the clamping block between a minimum miter angle and a maximum miter angle,
An apparatus comprising: a hose support block ; a first air hose configured to couple at a first end to a first pneumatic tire valve stem of a first pneumatic tire, the first air hose further coupled at a second end to the hose support block , the first air hose being configured to hold open the first pneumatic tire valve stem so as to allow two-way fluid flow through the first pneumatic tire valve stem ; and a first tire pressure monitoring system sensor pneumatically coupled to the first air hose so as to sense the pressure in the first air hose ; characterized in that the first air hose includes an auxiliary port provided in a hose fitting disposed at the second end of the first air hose , the first tire pressure monitoring system sensor being coupled to the first air hose at the second end thereof so as to position the first tire pressure monitoring system sensor away from the first pneumatic tire valve stem . a hose support block ; a first air hose configured to couple at a first end to a first pneumatic tire valve stem of a first pneumatic tire, the first air hose further coupled at a second end to the hose support block , the first air hose being configured to hold open the first pneumatic tire valve stem so as to allow two-way fluid flow through the first pneumatic tire valve stem ; and a first tire pressure monitoring system sensor pneumatically coupled to the first air hose so as to sense the pressure in the first air hose ; characterized in that the first air hose includes an auxiliary port provided in a hose fitting disposed at the second end of the first air hose , the first tire pressure monitoring system sensor being coupled to the first air hose at the second end thereof so as to position the first tire pressure monitoring system sensor away from the first pneumatic tire valve stem .
A nucleic acid-based microarray for detecting a target nucleic acid molecule in a sample, wherein the target nucleic acid molecule is miRNA, the microarray comprising a carrier substrate, a polymer layer and a capture probe, wherein the polymer layer is immobilized on the carrier substrate and comprises a carboxyl- or N-hydroxysuccinimide (NHS)-functionalized anti-fouling polymer, and the capture probe is covalently linked to the polymer layer, wherein the capture probe is an oligonucleotide molecule comprising a nucleotide sequence having sufficient complementarity to the target nucleic acid molecule to allow formation of a capture probe-target hybrid under detection conditions, wherein the capture probe has sufficient self-complementarity to allow formation of a stem-loop nucleic acid structure in the absence of the target nucleic acid molecule, wherein the nucleotide sequence of the capture probe having sufficient complementarity to the target nucleic acid molecule to allow formation of a capture probe-target hybrid under detection conditions is partially located in the loop region and its hybridization to the target nucleic acid molecule interrupts the stem-loop structure such that the capture probe adopts an open conformation, wherein the stem region of the capture probe comprises a nucleotide sequence having sufficient complementarity to a detection probe to allow formation of a capture probe-detection probe hybrid under detection conditions and in the presence of the target nucleic acid molecule.
A vision system for a motor vehicle, comprising a stereo imaging apparatus adapted to capture images from a surrounding of the motor vehicle, a disparity calculation block adapted to calculate a stereo disparity of left/right images captured by said stereo imaging apparatus , a memory means , and a processing device adapted to perform image processing of images captured by said imaging apparatus , wherein said vision system is adapted to perform time sharing of said disparity calculation block by periodically switching between said stereo disparity calculation and calculation of one-dimensional optical flow in a vertical direction of captured images, wherein images of the current time frame and the last before current time frame, or of current and last-before-current frames of same exposure level, of an imaging device selected among the plurality of optical imaging devices forming the stereo imaging apparatus , are stored in said memory means for said vertical optical flow calculation, wherein said vision system is adapted to perform an image transposition involving a rotation by 90°, in order to turn a column search into a row search, prior to performing said vertical optical flow calculation with a one-dimensional search along all transposed image rows, wherein said vision system is adapted to perform stereo disparity calculation in said disparity calculation block , forward image data from said disparity calculation block to said processing device , and stream back image data from said processing device to the disparity calculation block for the optical flow calculation, wherein said disparity calculation block is realized in a dedicated hardware device , wherein an initial guess of the vertical optical flow is used in the vertical optical flow calculation, wherein said initial guess of the vertical optical flow is based on ego motion of the vehicle, a flat road assumption and/or depth information from the stereo image processing, wherein said initial guess of the vertical optical flow is used to compensate a previous image in the vertical optical flow calculation.
A method for hosting middleware components for a plurality of tenants, the method comprising: mapping middleware components to a plurality of compute nodes, each of the compute nodes comprising a container management agent and one or more containers; organizing the plurality of compute nodes into one or more clusters based upon whether the compute nodes are running stateful or stateless middleware components; placing individual ones of the middleware components onto a mapped compute node; placing the individual ones of the middleware components into one or more containers on each of the mapped compute nodes by the container management agent, the containers hosting the operation of the one or more of the middleware components; determining a scale factor for a stateless middleware component; and cloning the middleware component on a number of compute nodes corresponding to the scale factor; determining a scale factor for a stateful middleware component; and placing partitions across a number of compute nodes corresponding to the scale factor, wherein the partitions correspond to containers hosting instances of the middleware component. mapping middleware components to a plurality of compute nodes, each of the compute nodes comprising a container management agent and one or more containers; organizing the plurality of compute nodes into one or more clusters based upon whether the compute nodes are running stateful or stateless middleware components; placing individual ones of the middleware components onto a mapped compute node; placing the individual ones of the middleware components into one or more containers on each of the mapped compute nodes by the container management agent, the containers hosting the operation of the one or more of the middleware components; determining a scale factor for a stateless middleware component; and cloning the middleware component on a number of compute nodes corresponding to the scale factor; determining a scale factor for a stateful middleware component; and placing partitions across a number of compute nodes corresponding to the scale factor, wherein the partitions correspond to containers hosting instances of the middleware component.