mhurhangee/patent-ind-claim-en huggingface dataset:
Mode for diagnosing overheating of a fluid cooling system coolant in a motor vehicle of an electric circuit comprising at least one electric machine for propelling the vehicle and at least one electric element (100 to 102) associated with the said at least one electric machine to be cooled, a temperature of the fluid being raised, characterized in that the method comprises a step of determining a first lower threshold, equal to an outside temperature in an environment of the vehicle, and a second threshold (MIN) equal to the minimum between , on the one hand, a third configurable threshold and, on the other hand, a highest temperature (MAX) of the temperatures (406 to 409) of said at least one electrical machine and of said at least one electrical element (100 to 102), a step of comparing the read temperature of the fluid with the first and second thresholds (MIN), and, when the read temperature is not between the first and second thresholds (MIN), a diagnostic step is performed tic of the cooling system as overheated.
A method for identifying a pathogen in a biological sample, comprising detecting the presence or absence of a Legionella pneumophila pmiA gene fragment that comprises at least 15 nucleotides from the sequence of SEQ ID NO: 12, or a complement thereof.
Compressor having a housing and having a rotor , wherein the rotor has a compressor wheel at least on one side, wherein a compressor chamber is formed between the compressor wheel and the housing , wherein the rotor is rotatably mounted, wherein an annular sealing channel is formed between the rotor and the housing , wherein the sealing channel is routed from the compressor chamber to a region having a lower pressure, wherein a connecting channel is routed from a region having a higher pressure to a first portion of the sealing channel , wherein the connecting channel is routed from a second portion of the sealing channel to the first portion of the sealing channel , wherein the first portion is arranged downstream in the direction of a lower pressure region with respect to the second portion , wherein a sealing element is formed on the rotor , wherein the sealing element is formed from a softer material than the rotor or the housing , wherein the sealing element represents at least one side of at least of one portion of the sealing channel , wherein a radial recess is formed in the housing , wherein a radial web is formed on the rotor and engages in the recess , and wherein at least one portion of the sealing channel is formed between the sealing element and the rotor .
A method of operation of a first wireless device in a cellular communications network , the method comprising: camping on a first cell on a first carrier, wherein the first cell does not support device-to-device, D2D, communication; and during a first time interval when the first cell satisfies one or more criteria for the first wireless device to remain camped on the first cell, monitoring at least one second carrier on a set of pre-configured radio resources for at least one of a group consisting of: a second cell that supports the D2D communication, a signal from a second wireless device that supports the D2D communication, and the D2D communication, wherein the set of pre-configured radio resources are received from the first cell in response to the first wireless device notifying the first cell that the first wireless device supports the D2D communication, and wherein the first time interval is chosen from one of: a portion of a non-paging time interval of the first cell and the non-paging time interval of the first cell minus a pre-defined synchronization time interval. camping on a first cell on a first carrier, wherein the first cell does not support device-to-device, D2D, communication; and during a first time interval when the first cell satisfies one or more criteria for the first wireless device to remain camped on the first cell, monitoring at least one second carrier on a set of pre-configured radio resources for at least one of a group consisting of: a second cell that supports the D2D communication, a signal from a second wireless device that supports the D2D communication, and the D2D communication, wherein the set of pre-configured radio resources are received from the first cell in response to the first wireless device notifying the first cell that the first wireless device supports the D2D communication, and wherein the first time interval is chosen from one of: a portion of a non-paging time interval of the first cell and the non-paging time interval of the first cell minus a pre-defined synchronization time interval.
A consumer product comprising a detergent product and a container, the container comprising a box , a lid for the box, and a lock to maintain the lid in a closed position, the box comprising the detergent product, the box comprising a base , sidewalls (111-114) and an opening , the lid comprising a top and flanks (121-124), the lid covering the opening and the flanks covering at least a specific portion of a specific sidewall of the sidewalls of the box when the lid is in the closed position, the lock comprising a specific actuator moveable from a locking position to an opening position by applying an actuation pressure onto the specific actuator when the lid is in the closed position, the specific actuator being connected to the specific portion of the specific sidewall, the flanks comprising a specific actuation area in a specific flank, the specific actuation area facing the specific actuator and permitting displacing the specific actuator from the locking position to the opening position by applying the actuation pressure at the specific actuation area when the lid is in the closed position, whereby the box further comprises a transversal wall , the transversal wall being connected to the specific sidewall and to another sidewall of the box, preferably to the opposite sidewall of the box, the opposite sidewall being opposite to the specific sidewall, whereby the specific actuation area defines a specific centroid, whereby the specific centroid is separated from the top of the lid by less than 5 cm and by more than 0.5 cm, whereby the specific centroid is separated from a distal end of the specific flank by more than 0.5 cm, and whereby the top of the lid spans less than 13 cm and more than 6 cm along a direction normal to the specific portion of the specific sidewall at the specific centroid, whereby the transversal wall is connected to the specific portion of the specific sidewall at at least at a point coinciding with the specific centroid when the lid is in the closed position.
An organic electroluminescent element including an organic layer provided between at least a pair of a cathode and an anode, wherein the organic layer is formed of at least one layer including a luminescent layer, and at least one layer forming the organic layer contains a compound represented by the general formula (A5): in which X 1 represents an oxygen atom or a sulfur atom; Z 1 , Z 2 and Z 5 to Z 8 independently represent =C(R 1 )-, while one of Z 3 and Z 4 represents =N- and the other represents =C(R 1 )-; and R 1 represents a hydrogen atom or a substituent; wherein, if Z 4 is =N-, Z 1 represents =C(R 2 )-, and R 2 represents a substituent being a nitrogen-containing 6 membered heterocycle of general formula (A5-1) or a nitrogen-containing 5 membered ring of general formula (A5-2): in which Y 1 to Y 5 independently represent =N- or =C(R 3 )-respectively; R 3 represents a hydrogen atom or a substituent; Y 1 or Y 4 represents =N-; and * represents a linkage position to the general formula (A5); wherein, if two of =C(R 3 )- are adjacently placed in series, two of R 3 may be condensed together to form a ring; in which W 1 represents -N- or =C-; W 2 to W 5 independently represent =N- or =C(R 4 )- respectively; R 4 represents a hydrogen atom or a substituent; at least one of W 1 to W 5 represents =N-; and * represents a linkage position to the general formula (A5); wherein, if two of =C(R 4 )- are adjacently placed in series, two of R 4 may be condensed together to form a ring. the organic layer is formed of at least one layer including a luminescent layer, and at least one layer forming the organic layer contains a compound represented by the general formula (A5): in which X 1 represents an oxygen atom or a sulfur atom; Z 1 , Z 2 and Z 5 to Z 8 independently represent =C(R 1 )-, while one of Z 3 and Z 4 represents =N- and the other represents =C(R 1 )-; and R 1 represents a hydrogen atom or a substituent; wherein, if Z 4 is =N-, Z 1 represents =C(R 2 )-, and R 2 represents a substituent being a nitrogen-containing 6 membered heterocycle of general formula (A5-1) or a nitrogen-containing 5 membered ring of general formula (A5-2): in which Y 1 to Y 5 independently represent =N- or =C(R 3 )-respectively; R 3 represents a hydrogen atom or a substituent; Y 1 or Y 4 represents =N-; and * represents a linkage position to the general formula (A5); wherein, if two of =C(R 3 )- are adjacently placed in series, two of R 3 may be condensed together to form a ring; in which W 1 represents -N- or =C-; W 2 to W 5 independently represent =N- or =C(R 4 )- respectively; R 4 represents a hydrogen atom or a substituent; at least one of W 1 to W 5 represents =N-; and * represents a linkage position to the general formula (A5); wherein, if two of =C(R 4 )- are adjacently placed in series, two of R 4 may be condensed together to form a ring.
Method for detecting at least one geological constituent (cge) of a rock sample, from training images, characterized in that the following steps are carried out by means of a computing system: a) segmenting (SEG) said training images (IAP) into at least two colours: a first colour for each area of said training images (IAP) comprising no geological constituent, and at least a second colour for each area of said training images (IAP) comprising a geological constituent ; b) partitioning (DEC) said training images (IAP) and said segmented images into a plurality of patches; c) training a machine-learning classification algorithm (ALG) by means of said patches of said training images (IAP) and by means of said patches of said segmented training images so as to classify said patches of said training images (IAP) depending on said colour of said patches of said corresponding segmented training images; d) acquiring an image of said rock sample (IER); e) partitioning (DEC) said acquired image of said rock sample (IER) into a plurality of patches; and f) detecting said at least one geological constituent (cge) in each of said patches of said acquired image of said rock sample (IER) by applying a model (MED) formed by said machine-learning algorithm (ALG) to said patches of said acquired image of said rock sample (IER). a) segmenting (SEG) said training images (IAP) into at least two colours: a first colour for each area of said training images (IAP) comprising no geological constituent, and at least a second colour for each area of said training images (IAP) comprising a geological constituent ; b) partitioning (DEC) said training images (IAP) and said segmented images into a plurality of patches; c) training a machine-learning classification algorithm (ALG) by means of said patches of said training images (IAP) and by means of said patches of said segmented training images so as to classify said patches of said training images (IAP) depending on said colour of said patches of said corresponding segmented training images; d) acquiring an image of said rock sample (IER); e) partitioning (DEC) said acquired image of said rock sample (IER) into a plurality of patches; and f) detecting said at least one geological constituent (cge) in each of said patches of said acquired image of said rock sample (IER) by applying a model (MED) formed by said machine-learning algorithm (ALG) to said patches of said acquired image of said rock sample (IER).
A bottom laying device for the production of sacks, - preferably cross-bottom valve sacks , - which contains at least one gluing unit , which glues components of the sacks, - wherein the gluing unit contains a nozzle strip , which has at least one nozzle for the extrusion of glue onto the sack components , - a counter layer , which places the sack components with a force against the nozzle strip , - wherein the counter layer has a working surface , and - wherein with this working surface at least one part of the back side of the surface of a sack component to be glued can be subjected to force, characterized in that the working surface is segmented, in that the working surface contains bands and/or is defined by bands , wherein with each band deflected by a force of the nozzle strip in the direction towards the working surface pressure can be applied to the back side of the sack components. - preferably cross-bottom valve sacks , - which contains at least one gluing unit , which glues components of the sacks, - wherein the gluing unit contains a nozzle strip , which has at least one nozzle for the extrusion of glue onto the sack components , - a counter layer , which places the sack components with a force against the nozzle strip , - wherein the counter layer has a working surface , and - wherein with this working surface at least one part of the back side of the surface of a sack component to be glued can be subjected to force,
An auxiliary power system for operation in cooperation with a primary engine of a vehicle, comprising: a secondary engine ; at least one of (i) a primary engine coolant heating system driven by the secondary engine and (ii) a primary engine lubricant heating system driven by the secondary engine; a control system that automatically starts the secondary engine responsive to a predetermined condition; a Direct Current (DC) power generator that generates an output voltage, the DC power generator being driven by the secondary engine, and a temperature sensor coupled to a switch and mountable to an exterior of the vehicle, characterized in that the switch is configured to disable automatic shutdown of the primary engine if a temperature sensed by the temperature sensor is below a threshold, the switch disabling automatic shutdown by disabling an Engine Shutdown Timer (EST) of the vehicle. a secondary engine ; at least one of (i) a primary engine coolant heating system driven by the secondary engine and (ii) a primary engine lubricant heating system driven by the secondary engine; a control system that automatically starts the secondary engine responsive to a predetermined condition; a Direct Current (DC) power generator that generates an output voltage, the DC power generator being driven by the secondary engine, and a temperature sensor coupled to a switch and mountable to an exterior of the vehicle, characterized in that the switch is configured to disable automatic shutdown of the primary engine if a temperature sensed by the temperature sensor is below a threshold, the switch disabling automatic shutdown by disabling an Engine Shutdown Timer (EST) of the vehicle.
A computer-implemented method for characterizing a classifier configured to generate a classification label for digital microscope slide image, comprising the steps of: a) acquiring a set of slide images, each composed of patches of pixel image data, which are in focus and which are associated with ground truth labels for each image patch; b) defining a set of out-of-focus degrees, and for each degree: 1) applying a corresponding amount of synthetic out-of-focus to each of the patches of an image in the set of slide images; 2) computing a classification error for each patch in the image; 3) computing a mean error across all of the patches in the image; c) storing the mean error computed in step b) 3) for all of the degrees defined in step b) as an expected error for the classifier for the out-of-focus degrees defined in step b); d) repeating steps b1), b2), b3), and c) for each of the slide images in the set. a) acquiring a set of slide images, each composed of patches of pixel image data, which are in focus and which are associated with ground truth labels for each image patch; b) defining a set of out-of-focus degrees, and for each degree: 1) applying a corresponding amount of synthetic out-of-focus to each of the patches of an image in the set of slide images; 2) computing a classification error for each patch in the image; 3) computing a mean error across all of the patches in the image; 1) applying a corresponding amount of synthetic out-of-focus to each of the patches of an image in the set of slide images; 2) computing a classification error for each patch in the image; 3) computing a mean error across all of the patches in the image; c) storing the mean error computed in step b) 3) for all of the degrees defined in step b) as an expected error for the classifier for the out-of-focus degrees defined in step b); d) repeating steps b1), b2), b3), and c) for each of the slide images in the set.
A method for freeing at least one locked wheel of a vehicle , wherein a locked wheel is a wheel not being able to rotate even though a corresponding brake is requested to be released and a driver of the vehicle requests propulsion torque, the method comprising: a. identifying a locking scenario comprising the identification of the at least one locked wheel , b. selecting a wheel freeing strategy being suitable for the identified locking scenario, and c. applying the selected wheel freeing strategy. a. identifying a locking scenario comprising the identification of the at least one locked wheel , b. selecting a wheel freeing strategy being suitable for the identified locking scenario, and c. applying the selected wheel freeing strategy.
A construction machine comprising: a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; an attachment attached to the upper turning body , the attachment including a boom , an arm , and a bucket ; a detecting part configured to detect a predetermined object present within a predetermined area around the construction machine; a restricting part configured to impose a motion restriction on the construction machine by decreasing a flow rate of hydraulic oil supplied to a hydraulic actuator of the construction machine, in response to detection of the object present within the predetermined area by the detecting part ; and a restriction degree controlling part configured to relax or cancel the motion restriction by increasing the flow rate, in response to a predetermined operation for relaxing or canceling the motion restriction being performed in a cabin of the construction machine or in response to the object being no longer detected within the predetermined area by the detecting part , after a start of the motion restriction by the restricting part , characterized in that the restriction degree controlling part is configured to relax or cancel the motion restriction with respect to only one or some operating elements among a plurality of operating elements of the construction machine, or to relax or cancel the motion restriction in a manner different for each of the plurality of operating elements, in response to the predetermined operation being performed after the start of the motion restriction by the restricting part . an upper turning body turnably mounted on the lower traveling body ; an attachment attached to the upper turning body , the attachment including a boom , an arm , and a bucket ; a detecting part configured to detect a predetermined object present within a predetermined area around the construction machine; a restricting part configured to impose a motion restriction on the construction machine by decreasing a flow rate of hydraulic oil supplied to a hydraulic actuator of the construction machine, in response to detection of the object present within the predetermined area by the detecting part ; and a restriction degree controlling part configured to relax or cancel the motion restriction by increasing the flow rate, in response to a predetermined operation for relaxing or canceling the motion restriction being performed in a cabin of the construction machine or in response to the object being no longer detected within the predetermined area by the detecting part , after a start of the motion restriction by the restricting part , characterized in that the restriction degree controlling part is configured to relax or cancel the motion restriction with respect to only one or some operating elements among a plurality of operating elements of the construction machine, or to relax or cancel the motion restriction in a manner different for each of the plurality of operating elements, in response to the predetermined operation being performed after the start of the motion restriction by the restricting part .
A method for determining virtual machine, VM, migration, wherein the method comprises: obtaining (S201), by a first virtual extensible local area network tunnel end point, VTEP, device, a Media Access Control, MAC, address of a VM from a first interface, wherein the first interface is connected to an attachment circuit, AC; searching, by the first VTEP device by using the MAC address of the VM as a keyword, an Address Resolution Protocol cache, ARP cache, table stored in the first VTEP device, and determining (S202) that the ARP cache table records that the VM accesses a second VTEP device; obtaining (S203), by the first VTEP device, an Internet Protocol, IP, address of the VM according to the ARP cache table, and generating and sending (S204) an ARP unicast request packet by using the IP address as a destination IP address; receiving (S205), by the first VTEP device from the first interface, an ARP response packet sent by the VM for the ARP unicast request packet; and responding to the received ARP response packet, determining (S206), by the first VTEP device, that the VM is migrated. obtaining (S201), by a first virtual extensible local area network tunnel end point, VTEP, device, a Media Access Control, MAC, address of a VM from a first interface, wherein the first interface is connected to an attachment circuit, AC; searching, by the first VTEP device by using the MAC address of the VM as a keyword, an Address Resolution Protocol cache, ARP cache, table stored in the first VTEP device, and determining (S202) that the ARP cache table records that the VM accesses a second VTEP device; obtaining (S203), by the first VTEP device, an Internet Protocol, IP, address of the VM according to the ARP cache table, and generating and sending (S204) an ARP unicast request packet by using the IP address as a destination IP address; receiving (S205), by the first VTEP device from the first interface, an ARP response packet sent by the VM for the ARP unicast request packet; and responding to the received ARP response packet, determining (S206), by the first VTEP device, that the VM is migrated.