mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the coating of a plastic component comprising the following steps: - heating of a coating area (2; 2.1; 2.2) with the aid of a heating unit at least to a threshold temperature value; - applying flame to the coating area (2; 2.1; 2.2) of the plastic component with the aid of a flame-application unit for the surface-activation of the coating area , where the heating takes place before the application of the flame; - application of a moisture-curing hotmelt adhesive to the coating area (2; 2.1; 2.2) with the aid of a spray unit (7; 7.1; 7.2); characterized in that in the region of the coating area (2; 2.1; 2.2) the plastic component has at least one smooth section (2.1) and at least one shaped section (2.2), and the spray unit (7; 7.1; 7.2) applies the hotmelt adhesive by using a wide-angle spray head (7.1) in the smooth section (2.1) and by using a spin spray head (7.2) in the shaped section (2.2). - heating of a coating area (2; 2.1; 2.2) with the aid of a heating unit at least to a threshold temperature value; - applying flame to the coating area (2; 2.1; 2.2) of the plastic component with the aid of a flame-application unit for the surface-activation of the coating area , where the heating takes place before the application of the flame; - application of a moisture-curing hotmelt adhesive to the coating area (2; 2.1; 2.2) with the aid of a spray unit (7; 7.1; 7.2);
A method for transmitting a data packet, the method comprises: transmitting , by a control node, a data packet received from at least one base station to an access network gateway or a core network gateway; and transmitting , by the control node, a data packet received from the access network gateway or the core network gateway to at least one base station, wherein the control node is a connection control node and a mobility control node of a user equipment; and wherein the control node transmits the data packet with a base station via Xn interface application protocol, and the control node performs authentication, authorization, connection management, mobility management and session management of the user equipment through air interface high-level protocol, and wherein the control node is located in access network of a cellular network, the access network further comprising at least a base station and at least an access network gateway. transmitting , by a control node, a data packet received from at least one base station to an access network gateway or a core network gateway; and transmitting , by the control node, a data packet received from the access network gateway or the core network gateway to at least one base station, wherein the control node is a connection control node and a mobility control node of a user equipment; and wherein the control node transmits the data packet with a base station via Xn interface application protocol, and the control node performs authentication, authorization, connection management, mobility management and session management of the user equipment through air interface high-level protocol, and wherein the control node is located in access network of a cellular network, the access network further comprising at least a base station and at least an access network gateway.
Coating system comprising: a transparent coating for display regions of glass or glass-ceramic plates which are coated over their area, and a two-dimensional non-transparent coating; wherein the transparent coating is obtainable by the following process steps: i) applying the transparent coating in recesses of the two-dimensional non-transparent coating as a sol-gel paint having alkyl silicates as film former, and ii) forming the transparent coating by a thermal treatment of the paint applied at less than or equal to 200°C; wherein the coating formed from the film former by thermal treatment is crosslinked via the reactive groups of the alkyl silicates and has organic, non-hydrolysable radicals bound directly to the silicon. a transparent coating for display regions of glass or glass-ceramic plates which are coated over their area, and a two-dimensional non-transparent coating; wherein the transparent coating is obtainable by the following process steps: i) applying the transparent coating in recesses of the two-dimensional non-transparent coating as a sol-gel paint having alkyl silicates as film former, and ii) forming the transparent coating by a thermal treatment of the paint applied at less than or equal to 200°C; i) applying the transparent coating in recesses of the two-dimensional non-transparent coating as a sol-gel paint having alkyl silicates as film former, and ii) forming the transparent coating by a thermal treatment of the paint applied at less than or equal to 200°C; wherein the coating formed from the film former by thermal treatment is crosslinked via the reactive groups of the alkyl silicates and has organic, non-hydrolysable radicals bound directly to the silicon.
A mobile communication device having a plurality of operational statuses, said device comprising: a housing ; a processor configured to: execute a first persona that includes a first virtualized operating system and a first trusted execution environment that has direct access to a first hardware trust anchor; and execute a second persona that includes a second virtualized operating system and a second trusted execution environment that has direct access to a second hardware trust anchor; an input device coupled to said housing, wherein actuating said input device enables a user to transition a focus of the mobile communication device between the first and second personas; and an indicator coupled in communication with said input device and configured to provide feedback to the user based on the operational status of the mobile communication device , wherein said indicator is indicative of the persona in focus, and wherein said input device and said indicator are isolated in hardware such that said input device and said indicator are inaccessible from untrusted code running on the mobile communication device . a housing ; a processor configured to: execute a first persona that includes a first virtualized operating system and a first trusted execution environment that has direct access to a first hardware trust anchor; and execute a second persona that includes a second virtualized operating system and a second trusted execution environment that has direct access to a second hardware trust anchor; execute a first persona that includes a first virtualized operating system and a first trusted execution environment that has direct access to a first hardware trust anchor; and execute a second persona that includes a second virtualized operating system and a second trusted execution environment that has direct access to a second hardware trust anchor; an input device coupled to said housing, wherein actuating said input device enables a user to transition a focus of the mobile communication device between the first and second personas; and an indicator coupled in communication with said input device and configured to provide feedback to the user based on the operational status of the mobile communication device , wherein said indicator is indicative of the persona in focus, and wherein said input device and said indicator are isolated in hardware such that said input device and said indicator are inaccessible from untrusted code running on the mobile communication device .
Modular locking system for a door , having a dish , which can be arranged on a first side of the door , having an actuating lever , which can be pivoted in relation to the dish and is intended for actuating a locking device , which can be arranged on the other side of the door and is intended for locking the door , having a securing device for arresting the actuating lever on the dish , and having a release module for disengaging the arresting action, characterized in that the release module is designed in the form of an extension of the dish.
A vehicle comprising a vehicle body and a suspension including a sensor for detecting vehicle load, wherein the sensor is provided with an optical fibre which is deformable upon varying the vehicle load so as to influence light transmission property of the optical fibre, wherein the suspension comprises at least a spring , wherein the sensor is located at the spring, wherein the spring has a vertically oriented centre line , wherein the spring is a coil spring , wherein the optical fibre extends in circumferential direction about the centre line , characterized in that the sensor has one or more rigid portions and one or more resilient portions for bending the optical fibre with respect to the rigid portions , wherein the sensor is accommodated in a spring seat of the coil spring, wherein the rigid portions are spaced in circumferential direction about the centre line.
A method of training a deep neural network based image recognition model for estimating a class of a landmark comprised in an input image and estimating a location of a reference point of the landmark, comprising: calculating a temporary output from a training image using the image recognition model , the temporary output comprising temporary class information and temporary reference point information of a landmark comprised in the training image , wherein the temporary class information includes a probability that the landmark in a training image belongs to a particular class, and wherein the temporary reference point information comprises estimated reference point coordinates of the landmark; calculating a class loss for the landmark based on the temporary class information and ground truth class information of the landmark; calculating a class-based weight based on the temporary class information, the class-based weight indicating a quantified value of a probability estimated for the ground truth class of the landmark; calculating a class-dependent localization loss based on the class-based weight, the temporary reference point information, and ground truth reference point information of the landmark; and training the image recognition model using a total loss comprising the class loss and the class-dependent localization loss . calculating a temporary output from a training image using the image recognition model , the temporary output comprising temporary class information and temporary reference point information of a landmark comprised in the training image , wherein the temporary class information includes a probability that the landmark in a training image belongs to a particular class, and wherein the temporary reference point information comprises estimated reference point coordinates of the landmark; calculating a class loss for the landmark based on the temporary class information and ground truth class information of the landmark; calculating a class-based weight based on the temporary class information, the class-based weight indicating a quantified value of a probability estimated for the ground truth class of the landmark; calculating a class-dependent localization loss based on the class-based weight, the temporary reference point information, and ground truth reference point information of the landmark; and training the image recognition model using a total loss comprising the class loss and the class-dependent localization loss .
An inter-blade platform comprising a seal configured to extend circumferentially about an axis and to be mounted between two axial ends of the inter-blade platform , the seal comprising at least a first part configured to be in contact with a first blade circumferentially adjacent to a first circumferential end of the platform , and at least a second part configured to be contact with a second blade circumferentially adjacent to a second circumferential end of the platform , the first part and the second part of the seal being distinct from each other and being configured to be fixed to each other such that a displacement in one circumferential direction of one of the first or second part of the seal causes a displacement of the other one of the first or second part of the seal in the same direction, when the first part and the second part of the seal are fixed to each other, the platform being characterized in that a first and/or a second structural portion of the seal comprises at least one tab , and in that it comprises a box delimited by a flowpath wall to define an air flowpath, the box comprising at least one lateral passage , the at least one lateral passage being a circumferential orifice radially disposed under the flowpath wall configured to accommodate the at least one tab and to allow the displacement of the seal extending circumferentially on either side of the platform , radially under the flowpath wall .
A manufacturing process, comprising: solidifying material together within a chamber to form an object using an additive manufacturing device ; and conditioning at least a portion of the solidified material within the chamber using a material conditioning device , characterised in that the conditioning comprises: boriding at least a portion of the solidified material at a surface of the object ; and/or chromizing at least a portion of the solidified material at a surface of the object ; and/or aluminizing at least a portion of the solidified material at a surface of the object . solidifying material together within a chamber to form an object using an additive manufacturing device ; and conditioning at least a portion of the solidified material within the chamber using a material conditioning device , characterised in that the conditioning comprises: boriding at least a portion of the solidified material at a surface of the object ; and/or chromizing at least a portion of the solidified material at a surface of the object ; and/or aluminizing at least a portion of the solidified material at a surface of the object . boriding at least a portion of the solidified material at a surface of the object ; and/or chromizing at least a portion of the solidified material at a surface of the object ; and/or aluminizing at least a portion of the solidified material at a surface of the object .
An implantable neural interface system, comprising: at least one electrode ; a spine , optionally wherein the spine is configured to provide a passage for electrical conductors from an implantable pulse generator to the at least one electrode ; and at least one arm extending from the spine , wherein the electrode is positioned on the arm ; a strain relief feature configured to reduce strain in relative movement or displacement of portions of neural interface system, optionally wherein the strain relief feature is configured to reduce strain in relative movement of one or more of the spine and the at least one arm ; characterized in that the at least one arm comprises a first shot portion and a second shot outer layer , and wherein the second shot outer layer has a lower hardness than the first shot portion . at least one electrode ; a spine , optionally wherein the spine is configured to provide a passage for electrical conductors from an implantable pulse generator to the at least one electrode ; and at least one arm extending from the spine , wherein the electrode is positioned on the arm ; a strain relief feature configured to reduce strain in relative movement or displacement of portions of neural interface system, optionally wherein the strain relief feature is configured to reduce strain in relative movement of one or more of the spine and the at least one arm ; characterized in that the at least one arm comprises a first shot portion and a second shot outer layer , and wherein the second shot outer layer has a lower hardness than the first shot portion .
A communication method, comprising: receiving (S110), by a terminal device from a network device, a synchronization signal and a system information signal that are generated based on a first subcarrier spacing, wherein the system information signal comprises indication information used for indicating a second subcarrier spacing, and the second subcarrier spacing is a subcarrier spacing used by the terminal device to send a random access request signal; sending (S120), by the terminal device, the random access request signal to the network device based on the second subcarrier spacing and a first transmission resource, wherein the random access request signal comprises a preamble sequence, a type of the preamble sequence corresponds to a third subcarrier spacing, the third subcarrier spacing is a subcarrier spacing used by the terminal device to send an uplink signal; and receiving (S130), by the terminal device from the network device, a random access response signal generated based on a fourth subcarrier spacing, wherein the random access response signal is used for instructing the terminal device to access a network or the random access response signal is used for instructing the terminal device to prepare to access network. receiving (S110), by a terminal device from a network device, a synchronization signal and a system information signal that are generated based on a first subcarrier spacing, wherein the system information signal comprises indication information used for indicating a second subcarrier spacing, and the second subcarrier spacing is a subcarrier spacing used by the terminal device to send a random access request signal; sending (S120), by the terminal device, the random access request signal to the network device based on the second subcarrier spacing and a first transmission resource, wherein the random access request signal comprises a preamble sequence, a type of the preamble sequence corresponds to a third subcarrier spacing, the third subcarrier spacing is a subcarrier spacing used by the terminal device to send an uplink signal; and receiving (S130), by the terminal device from the network device, a random access response signal generated based on a fourth subcarrier spacing, wherein the random access response signal is used for instructing the terminal device to access a network or the random access response signal is used for instructing the terminal device to prepare to access network.
A method of laundering articles, the method comprising: (i) combining a detergent composition and water to provide a detergent solution, wherein the surfactant content of the detergent composition is at least 40wt%. linear alkylbenzene sulfonate(s); then (ii) introducing into a washing machine basket the detergent solution so as to dampen articles in the basket; and then (iii) waiting for a duration of time during which no water or further detergent solution is added to the basket containing the dampened articles; in which the dilution factor is from 2 to 10 (i.e. from 2 parts water to 1 part detergent composition to 10 parts water to 1 part detergent composition); and the amount of surfactant in the detergent solution is at least 15,000 ppm. (i) combining a detergent composition and water to provide a detergent solution, wherein the surfactant content of the detergent composition is at least 40wt%. linear alkylbenzene sulfonate(s); then (ii) introducing into a washing machine basket the detergent solution so as to dampen articles in the basket; and then (iii) waiting for a duration of time during which no water or further detergent solution is added to the basket containing the dampened articles; in which the dilution factor is from 2 to 10 (i.e. from 2 parts water to 1 part detergent composition to 10 parts water to 1 part detergent composition); and the amount of surfactant in the detergent solution is at least 15,000 ppm.
A scheduling request transmission method performed by a terminal device, the method comprising: • obtaining a scheduling request, SR, resource of a scheduling request, SR, the SR resource being configured by a network device for the terminal device and that is carried on an uplink control channel (step 201); • obtaining a mapping relationship that is between the SR resource and a plurality of uplink beam pairs and that is configured by the network device for the terminal device (step 203); • sending the SR by using the plurality of uplink beam pairs and the SR resource (step 204), wherein a SR prohibit timer is started for each SR; • if the terminal device receives a response message sent by the network device for the SR, the terminal device stops the SR prohibit timers of all the SRs and resets according prohibit counters; • during running of the SR prohibit timers corresponding to the SR resources, the terminal device does not resend the SR, wherein only after the SR prohibit timer is stopped, the SRs are retransmitted, • when a quantity of retransmission times of the SR corresponding to the plurality of uplink beams exceeds a maximum quantity of retransmission times, releasing the SR resource, and initiating a random access to the network device. • obtaining a scheduling request, SR, resource of a scheduling request, SR, the SR resource being configured by a network device for the terminal device and that is carried on an uplink control channel (step 201); • obtaining a mapping relationship that is between the SR resource and a plurality of uplink beam pairs and that is configured by the network device for the terminal device (step 203); • sending the SR by using the plurality of uplink beam pairs and the SR resource (step 204), wherein a SR prohibit timer is started for each SR; • if the terminal device receives a response message sent by the network device for the SR, the terminal device stops the SR prohibit timers of all the SRs and resets according prohibit counters; • during running of the SR prohibit timers corresponding to the SR resources, the terminal device does not resend the SR, wherein only after the SR prohibit timer is stopped, the SRs are retransmitted, • when a quantity of retransmission times of the SR corresponding to the plurality of uplink beams exceeds a maximum quantity of retransmission times, releasing the SR resource, and initiating a random access to the network device.
Handheld tool apparatus having a computation unit (12a; 12b) and at least one locating apparatus (14a; 14b), wherein the locating apparatus has a locating antenna that is provided for the purpose of sending at least two orthogonal linear polarization directions of a locating signal separately from one another and receiving them separately from one another, characterized in that the computation unit is provided for the purpose of ascertaining at least one piece of position information for a locatable object by means of determination of a circularly polarized component of the locating signal from at least two received linear polarization directions of the locating signal.
A cylinder block comprising a bearing body having a fitting recess part to which a bearing cap can be fitted, and a bearing part formed in the bottom surface of said fitting recess part, and configured so as to axially support a crank shaft between the bearing body and the bearing cap in a rotatable fashion, wherein the cylinder block is configured such that: the fitting recess part has a bottom surface corner part which is abutted by a corner part of the bearing cap; and in the bottom surface corner part, formed is a recess groove having a substantially arched shape when seen from the axial direction of the crank shaft and extending in the axial direction, characterized in that the recess groove has different depths, in the extension direction of said recess groove, in accordance with the magnitude of the stress acting on said recess groove. the fitting recess part has a bottom surface corner part which is abutted by a corner part of the bearing cap; and in the bottom surface corner part, formed is a recess groove having a substantially arched shape when seen from the axial direction of the crank shaft and extending in the axial direction, characterized in that the recess groove has different depths, in the extension direction of said recess groove, in accordance with the magnitude of the stress acting on said recess groove.