mhurhangee/patent-ind-claim-en huggingface dataset:
Electric axle , E-axle, for vehicles, comprising: - a gear mechanism ; - an electric machine which is designed to drive the gear mechanism and has a first machine-side coolant connection (9.1) and a second machine-side coolant connection (9.2); and - a power electronics system which is designed to actuate the electric machine and has an electronics system-side coolant inlet , to which a vehicle-side coolant circuit can be connected in a fluid-conducting manner, and an electronics system-side coolant outlet ; characterized in that the power electronics system is arranged on an end side (S) of the electric machine either in a first orientation or in a second orientation, wherein, in the first orientation, the electronics system-side coolant outlet is connected in a fluid-conducting manner to the first machine-side coolant connection (9.1) and can be connected in a fluid-conducting manner to the second machine-side coolant connection (9.2) of the vehicle-side coolant circuit , and wherein, in the second orientation, the electronics system-side coolant outlet is connected in a fluid conducting manner to the second machine-side coolant connection (9.2) and can be connected in a fluid-conducting manner to the first machine-side coolant connection (9.1) of the vehicle-side coolant circuit . - a gear mechanism ; - an electric machine which is designed to drive the gear mechanism and has a first machine-side coolant connection (9.1) and a second machine-side coolant connection (9.2); and - a power electronics system which is designed to actuate the electric machine and has an electronics system-side coolant inlet , to which a vehicle-side coolant circuit can be connected in a fluid-conducting manner, and an electronics system-side coolant outlet ; characterized in that the power electronics system is arranged on an end side (S) of the electric machine either in a first orientation or in a second orientation, wherein, in the first orientation, the electronics system-side coolant outlet is connected in a fluid-conducting manner to the first machine-side coolant connection (9.1) and can be connected in a fluid-conducting manner to the second machine-side coolant connection (9.2) of the vehicle-side coolant circuit , and wherein, in the second orientation, the electronics system-side coolant outlet is connected in a fluid conducting manner to the second machine-side coolant connection (9.2) and can be connected in a fluid-conducting manner to the first machine-side coolant connection (9.1) of the vehicle-side coolant circuit .
A process for producing a polyurethane foam comprising forming a reaction mixture that contains an aromatic polyisocyanate, at least one isocyanate-reactive material having an average functionality of at least 2 and an equivalent weight of at least 200 per isocyanate-reactive group, at least one blowing agent, at least one surfactant and at least one catalyst, and curing the reaction mixture in the presence of (i) a polyethyleneamine mixture having a number average molecular weight of 175 to 450 and (ii) and alkali metal, ammonium or phosphonium sulfite, to form the polyurethane foam.
A corrugating roll unit replacing apparatus for performing an operation of replacing a corrugating roll unit between a single facer and a corrugating roll unit transporting carriage , comprising: a replacement carriage capable of moving along a replacement direction (X) of the corrugating roll unit ; a movement unit capable of moving the replacement carriage in the replacement direction (X); and a connection device configured to connect the replacement carriage and the corrugating roll unit , wherein a pair of guide rails is provided along the replacement direction (X), the replacement carriage is supported to be movable along the pair of guide rails , wherein, along the pair of guide rails , there is provided a space for a single facer , a retreat space (M1) for the replacement carriage provided on one side (X1), in the replacement direction (X), of the space for the single facer , and a connection space (M2) for the replacement carriage , characterized in that the connection space (M2) for the replacement carriage is provided on the other side (X2), in the replacement direction (X), of the space for the single facer . a replacement carriage capable of moving along a replacement direction (X) of the corrugating roll unit ; a movement unit capable of moving the replacement carriage in the replacement direction (X); and a connection device configured to connect the replacement carriage and the corrugating roll unit , wherein a pair of guide rails is provided along the replacement direction (X), the replacement carriage is supported to be movable along the pair of guide rails , wherein, along the pair of guide rails , there is provided a space for a single facer , a retreat space (M1) for the replacement carriage provided on one side (X1), in the replacement direction (X), of the space for the single facer , and a connection space (M2) for the replacement carriage , characterized in that the connection space (M2) for the replacement carriage is provided on the other side (X2), in the replacement direction (X), of the space for the single facer .
A method of wireless communication, performed by a wireless communication device, comprising: measuring signal strength of a received on-going transmission; checking , based on the received on-going transmission, whether a condition for a spatial reuse transmission sharing time and/or frequency of the on-going transmission is met, wherein checking the condition comprises tracking a spatial reuse duration of the spatial reuse transmission; performing , within the spatial reuse duration, an enhanced distributed channel access mechanism over the on-going transmission for the spatial reuse transmission, wherein the enhanced distributed channel access mechanism comprises calculating a target transmission power for initiating the spatial reuse transmission over the on-going transmission; and transmitting , based on the enhanced distributed channel access mechanism, the spatial reuse transmission over the on-going transmission. measuring signal strength of a received on-going transmission; checking , based on the received on-going transmission, whether a condition for a spatial reuse transmission sharing time and/or frequency of the on-going transmission is met, wherein checking the condition comprises tracking a spatial reuse duration of the spatial reuse transmission; performing , within the spatial reuse duration, an enhanced distributed channel access mechanism over the on-going transmission for the spatial reuse transmission, wherein the enhanced distributed channel access mechanism comprises calculating a target transmission power for initiating the spatial reuse transmission over the on-going transmission; and transmitting , based on the enhanced distributed channel access mechanism, the spatial reuse transmission over the on-going transmission.
Chassis component comprising a first end section and a second end section , wherein a connecting section is arranged between the two end sections , comprising at least one bearing in one of the two end sections , and comprising a sensor device , wherein a sensor housing has a first sensor element of the sensor device and the two end sections and the connecting section are designed as a single-part profile which is open on one side over the longitudinal extent, wherein the open profile forms an at least partially free internal space , characterized in that the first sensor element is arranged within the internal space , wherein a wall of the open profile has a passage opening and the sensor housing extends from an outer side of the wall , through the passage opening , into the internal space .
Method for generating a virtual representation of a coaxial network structure of a MoCA, Multimedia over Coaxial Alliance, network, which MoCA network comprises a plurality of node devices including one network management device , wherein said node devices are interconnected through said coaxial network , the method comprising the steps of: determining a time lapse matrix, comprising time lapse values T i,j representing propagation time through the coaxial network between node devices n i and n j ; arranging the time lapse matrix with said network management device as a node device n 0 , and columns and rows in magnitude order of time lapse values T with respect to no; processing the time lapse matrix to establish a branch association for each node device with respect to the network management device, including comparing magnitude of time lapse values in the arranged time lapse matrix, and establishing branch association for each node device based on said comparison; storing virtual representation data of the coaxial network comprising said branch association. determining a time lapse matrix, comprising time lapse values T i,j representing propagation time through the coaxial network between node devices n i and n j ; arranging the time lapse matrix with said network management device as a node device n 0 , and columns and rows in magnitude order of time lapse values T with respect to no; processing the time lapse matrix to establish a branch association for each node device with respect to the network management device, including comparing magnitude of time lapse values in the arranged time lapse matrix, and establishing branch association for each node device based on said comparison; comparing magnitude of time lapse values in the arranged time lapse matrix, and establishing branch association for each node device based on said comparison; storing virtual representation data of the coaxial network comprising said branch association.
A thermoplastic resin composition comprising: 100 parts by weight of a thermoplastic resin comprising a repeat unit represented by Formula 1, a repeat unit represented by Formula 2, and a repeat unit represented by Formula 3; and 5 parts by weight to 40 parts by weight of reinforcing fillers, where R 1 and R 2 are each independently a hydrogen atom, a methyl group or an ethyl group, and Ar is a substituted or unsubstituted C 6 to C 20 aryl group; where R 3 is where R 4 is a C 1 to C 5 alkylene group, R 5 is a C 1 to C 30 linear alkyl group, and ∗ indicates a linking site. 100 parts by weight of a thermoplastic resin comprising a repeat unit represented by Formula 1, a repeat unit represented by Formula 2, and a repeat unit represented by Formula 3; and 5 parts by weight to 40 parts by weight of reinforcing fillers, where R 1 and R 2 are each independently a hydrogen atom, a methyl group or an ethyl group, and Ar is a substituted or unsubstituted C 6 to C 20 aryl group; where R 3 is where R 4 is a C 1 to C 5 alkylene group, R 5 is a C 1 to C 30 linear alkyl group, and ∗ indicates a linking site.
An optical device , comprising: a case , which is configured to fit over at least a part of a mobile computing device having first and second faces and including a light source , wherein in use the light source of the mobile computing device over which the optical device is configured to be fitted is arranged to emit a beam of illumination through an exit aperture and direct the beam away from the second face of the mobile computing device, and a camera module , arranged in use to capture images through an entrance aperture, wherein both the entrance and exit apertures open through the second face of the mobile computing device; a receptacle in the case configured to receive and position a sample in proximity to the second face of the mobile computing device within a field of view of the camera module; and illumination optics, characterized in that the illumination optics are configured to back-illuminate the sample while the camera module of the mobile computing device over which the optical device in use is fitted, captures one or more images of the back-illuminated sample, and in that the illumination optics comprise a pair of reflective surfaces , each configured to turn the beam emitted by the light source by 90°, and which together reflect the beam emitted by the light source back toward the second face of the mobile computing device over which the optical device in use is fitted. a case , which is configured to fit over at least a part of a mobile computing device having first and second faces and including a light source , wherein in use the light source of the mobile computing device over which the optical device is configured to be fitted is arranged to emit a beam of illumination through an exit aperture and direct the beam away from the second face of the mobile computing device, and a camera module , arranged in use to capture images through an entrance aperture, wherein both the entrance and exit apertures open through the second face of the mobile computing device; a receptacle in the case configured to receive and position a sample in proximity to the second face of the mobile computing device within a field of view of the camera module; and illumination optics, characterized in that the illumination optics are configured to back-illuminate the sample while the camera module of the mobile computing device over which the optical device in use is fitted, captures one or more images of the back-illuminated sample, and in that the illumination optics comprise a pair of reflective surfaces , each configured to turn the beam emitted by the light source by 90°, and which together reflect the beam emitted by the light source back toward the second face of the mobile computing device over which the optical device in use is fitted.
A multi-compound angular profile comprising a first element fixable to a raised part of a step of a staircase and provided with a lower inner portion, said first element having a first lowered seat (1A1), on which one or more LEDs or a strip of LEDs are stably positioned, and a second element , placed inside a second lowered seat (1A2), which is formed in an upper and horizontal portion of said first element such that it would be coplanar to a horizontal covering element of a step of a staircase on which said angular profile is fixed, said second element being composed of a plurality of sub-elements, characterised in that said plurality of sub-elements comprises a first upper sub-element made of aluminum or plastic polymers or other finishing materials, a second intermediate sub-element including piezo-electric sensors made from an intermediate film of ferro-electric polymers and/or a base material with piezo-electric and pyro-electric activity, on which electrodes based on ferro-electric polymers are applied, and a third lower sub-element is made of aluminum or plastic polymers, said second element being assembled inside said second lowered seat (1A2) of said first element . characterised in that said plurality of sub-elements comprises a first upper sub-element made of aluminum or plastic polymers or other finishing materials, a second intermediate sub-element including piezo-electric sensors made from an intermediate film of ferro-electric polymers and/or a base material with piezo-electric and pyro-electric activity, on which electrodes based on ferro-electric polymers are applied, and a third lower sub-element is made of aluminum or plastic polymers, said second element being assembled inside said second lowered seat (1A2) of said first element .
A method to capture error information from a virtual machine manager-VMM- , comprising: defining a shared memory structure between the VMM and a plurality of virtual machines, VMs ; when each of the VMs is spawned by the VMM, installing an abort handler on the respective VM associated with a vector value; in response to detecting an error of the VMM, transferring VMM state information to the shared memory structure; determining whether to select one or all of the VMs to receive an exception event and participate in an event injection; invoking an exception event injector of the VMM to configure VM-entry control fields, said fields included in said VMM; and invoking the abort handler on each of the selected VMs based on the corresponding vector values as configured in the VM-entry control fields to transfer the VMM state information stored in the shared memory structure to a non-volatile memory. defining a shared memory structure between the VMM and a plurality of virtual machines, VMs ; when each of the VMs is spawned by the VMM, installing an abort handler on the respective VM associated with a vector value; in response to detecting an error of the VMM, transferring VMM state information to the shared memory structure; determining whether to select one or all of the VMs to receive an exception event and participate in an event injection; invoking an exception event injector of the VMM to configure VM-entry control fields, said fields included in said VMM; and invoking the abort handler on each of the selected VMs based on the corresponding vector values as configured in the VM-entry control fields to transfer the VMM state information stored in the shared memory structure to a non-volatile memory.
A food-waste tank with at least two chambers located one after the other separated by an internal separating wall and comprising a first inlet for food waste mixed with water and an end wall at each end that seals the tank , wherein the internal separating wall extends essentially over the complete diameter of the tank , dividing the food-waste tank into two chambers , one of which follows the other, characterised in that the food-waste tank comprises a second inlet principally for dish-washing water without food waste, wherein the food-waste tank is formed by an extended double-walled pipe formed by an element of duct, preferably square, wound as a screw, such that one side of the sides of the element of duct forms the inner surface of the double walled pipe, and the opposite side forms the outer surface of the pipe, while the intermediate sides are glued or welded to each other.
An information processing apparatus comprising: a circuitry configured to control a state of a selection candidate object, when a predetermined condition concerning a selection of the selection candidate object is determined to be satisfied based on a relation between a display position of the selection candidate object and a position towards which the user gazes or a gazing direction, by bringing the selection candidate object to a selected state, wherein, when a time in which the position towards which the user gazes is within a first region of a display screen in which the selection candidate object is displayed is longer than or equal to a first setting time, the predetermined condition concerning the selection is determined to be satisfied, the information processing apparatus being characterized in that the circuitry is further configured to: dynamically set the first setting time based on a magnitude of movement of the eyes of the user based on changes of the position towards which the user gazes; and initiate a determination as to whether the predetermined condition concerning the selection is satisfied based on the first setting time set dynamically. a circuitry configured to control a state of a selection candidate object, when a predetermined condition concerning a selection of the selection candidate object is determined to be satisfied based on a relation between a display position of the selection candidate object and a position towards which the user gazes or a gazing direction, by bringing the selection candidate object to a selected state, wherein, when a time in which the position towards which the user gazes is within a first region of a display screen in which the selection candidate object is displayed is longer than or equal to a first setting time, the predetermined condition concerning the selection is determined to be satisfied, the information processing apparatus being characterized in that the circuitry is further configured to: dynamically set the first setting time based on a magnitude of movement of the eyes of the user based on changes of the position towards which the user gazes; and initiate a determination as to whether the predetermined condition concerning the selection is satisfied based on the first setting time set dynamically. dynamically set the first setting time based on a magnitude of movement of the eyes of the user based on changes of the position towards which the user gazes; and initiate a determination as to whether the predetermined condition concerning the selection is satisfied based on the first setting time set dynamically.
Stack-shaped III-V semiconductor component comprising - a p + region with an upper side, a lower side and an electrically effective doping substance concentration of 5 • 10 18 - 5 • 10 20 N/cm 3 , - a first n - layer with an upper side and a lower side, a doping substance concentration of 10 12 - 10 17 N/cm 3 and a layer thickness (D2) of 10 - 300 μm, - an n + region with an upper side, a lower side and a doping substance concentration of at least 10 19 N/cm 3 , wherein - the p + region , the n - layer and the n + region follow one another in the stated sequence, are each of monolithic construction and each comprise a GaAs compound or consist of a GaAs compound, - the n + region or the p + region is constructed as a substrate layer, - the n - layer includes defects with a concentration of at least 10 14 N/cm 3 and - the p + region and the n + region are of layer-shaped construction, - the layer-shaped n + region and the layer-shaped p + region are connected with the n - layer by material couple, wherein - the lower side of the n - layer is connected by material couple with an upper side of the p + region as substrate and a lower side of the n + region is connected by material couple with the n - layer , and the doping substance concentration within the n - layer increases in a direction from the lower side of the n - layer towards the upper side of the n - layer by a factor of 1.5 to 2.5, or the n + region is constructed as substrate, on which the n - layer of the p + region is arranged, so that the lower side of the n + layer forms the lower side of the stack and the upper side of the stack is the upper side of the p + layer, and increases in a direction from the p + region towards the n + region by a factor of 1.5 to 2.5. - a p + region with an upper side, a lower side and an electrically effective doping substance concentration of 5 • 10 18 - 5 • 10 20 N/cm 3 , - a first n - layer with an upper side and a lower side, a doping substance concentration of 10 12 - 10 17 N/cm 3 and a layer thickness (D2) of 10 - 300 μm, - an n + region with an upper side, a lower side and a doping substance concentration of at least 10 19 N/cm 3 , wherein - the p + region , the n - layer and the n + region follow one another in the stated sequence, are each of monolithic construction and each comprise a GaAs compound or consist of a GaAs compound, - the n + region or the p + region is constructed as a substrate layer, - the n - layer includes defects with a concentration of at least 10 14 N/cm 3 and - the p + region and the n + region are of layer-shaped construction, - the layer-shaped n + region and the layer-shaped p + region are connected with the n - layer by material couple, wherein - the lower side of the n - layer is connected by material couple with an upper side of the p + region as substrate and a lower side of the n + region is connected by material couple with the n - layer , and the doping substance concentration within the n - layer increases in a direction from the lower side of the n - layer towards the upper side of the n - layer by a factor of 1.5 to 2.5, or