mhurhangee/ep-ind-claims huggingface dataset:
A dispenser for a sheet product, comprising: a housing with a chassis; a drive roller; a pinch roller assembly (200, 300, 500, 700), the pinch roller assembly (200, 300, 500, 700) defining a nip with the drive roller for receiving the sheet product, wherein the pinch roller assembly comprises a pinch roller body (202, 302, 502) having a plurality of grooves (304, 504); and a plurality of clips (210, 310, 410, 510, 610, 710) rotatably associated with the pinch roller body (202, 302, 502) such that the pinch roller body (202, 302, 502) can freely rotate while the clips (210, 310, 410, 510, 610, 710) can remain rotatably stationary with respect to the pinch roller body (202, 302, 502), wherein each one of the plurality of clips (210, 310, 410, 510, 610, 710) is disposed in one of the plurality of grooves (304, 504), and each one of the plurality of clips (210, 310, 410, 510, 610, 710) comprises a body portion (214, 414, 614, 714) that extends outward beyond the pinch roller body (202, 302, 502), wherein each one of the plurality of clips (210, 310, 410, 510, 710) comprises a hook portion (212, 412) sized for positioning about the pinch roller body (202, 302, 502), or wherein each one of the plurality of clips comprises a roller-encircling portion. wherein the body portion (214, 414, 614, 714) extends from the hook portion (212, 412) or the roller-encircling portion beyond an outer diameter of the pinch roller body (202, 302, 502), and wherein bottom ends of the body portions (214, 414, 614, 714) of the clips (210, 310, 410, 510, 610, 710) engage said chassis when the pinch roller body (202, 302, 502) rotates during a sheet dispensing action. a housing with a chassis; a drive roller; a pinch roller assembly (200, 300, 500, 700), the pinch roller assembly (200, 300, 500, 700) defining a nip with the drive roller for receiving the sheet product, wherein the pinch roller assembly comprises a pinch roller body (202, 302, 502) having a plurality of grooves (304, 504); and a plurality of clips (210, 310, 410, 510, 610, 710) rotatably associated with the pinch roller body (202, 302, 502) such that the pinch roller body (202, 302, 502) can freely rotate while the clips (210, 310, 410, 510, 610, 710) can remain rotatably stationary with respect to the pinch roller body (202, 302, 502), wherein each one of the plurality of clips (210, 310, 410, 510, 610, 710) is disposed in one of the plurality of grooves (304, 504), and each one of the plurality of clips (210, 310, 410, 510, 610, 710) comprises a body portion (214, 414, 614, 714) that extends outward beyond the pinch roller body (202, 302, 502), wherein each one of the plurality of clips (210, 310, 410, 510, 710) comprises a hook portion (212, 412) sized for positioning about the pinch roller body (202, 302, 502), or wherein each one of the plurality of clips comprises a roller-encircling portion.
An electronic cigarette tubes spacing adjustment apparatus for adjusting spaces between tubes received from a first track with a first spacing and delivered to a second track with a second spacing, wherein the apparatus comprises: a rotary carrousel configured to rotate about a rotation axis and provided with a guide extending with the longitudinal axis partially along a line substantially intersecting the rotation axis; a stationary cam track extending around the rotation axis; a carriage mounted to the carrousel for traveling in a reciprocating movement along the guide driven by a cam follower following the cam track while the carousel is rotating; and, a receiver connected to the carriage for receiving the tube from the first track at a first distance from the rotation axis and delivering the tube to the second track at a second distance from the rotation axis while adjusting the spacing from the first spacing to the second spacing between delivering and receiving the tube. a rotary carrousel configured to rotate about a rotation axis and provided with a guide extending with the longitudinal axis partially along a line substantially intersecting the rotation axis; a stationary cam track extending around the rotation axis; a carriage mounted to the carrousel for traveling in a reciprocating movement along the guide driven by a cam follower following the cam track while the carousel is rotating; and, a receiver connected to the carriage for receiving the tube from the first track at a first distance from the rotation axis and delivering the tube to the second track at a second distance from the rotation axis while adjusting the spacing from the first spacing to the second spacing between delivering and receiving the tube.
A method of providing a content-on-demand service to a user terminal in a system comprising a plurality of content-on-demand servers and a packet-switched network, each content-on-demand server comprising a respective Resource And Admission Control, RAC, controller, the method comprising the steps of: a first of the content-on-demand servers seeking (Fig.4:h) to reserve packet-switched network resources to enable service delivery to the user terminal by seeking to set up a path with sufficient resources through the network, said first server sending (j) to a control means a message that resource reservation was insufficient, thereafter a further of the content-on-demand servers seeking (k) to reserve packet-switched network resources to enable service provision to the user terminal by seeking to set up a path with sufficient resources through the network, the packet-switched network sending a reservation acknowledgement to said further server, said further server sending to the control means a message that resource reservation is sufficient, and said further server providing (n,o) the content to the user terminal via the packet-switched network; in which the control means uses a list of candidate content-on-demand servers, to determine the sequence in which servers are to be requested to seek to reserve resources, the control means requesting in turn the servers to reserve resources and to send a message (j, l) whether resource reservation was sufficient, until one reports ( l) that resource reservation is sufficient. a first of the content-on-demand servers seeking (Fig.4:h) to reserve packet-switched network resources to enable service delivery to the user terminal by seeking to set up a path with sufficient resources through the network, said first server sending (j) to a control means a message that resource reservation was insufficient, thereafter a further of the content-on-demand servers seeking (k) to reserve packet-switched network resources to enable service provision to the user terminal by seeking to set up a path with sufficient resources through the network, the packet-switched network sending a reservation acknowledgement to said further server, said further server sending to the control means a message that resource reservation is sufficient, and said further server providing (n,o) the content to the user terminal via the packet-switched network; in which the control means uses a list of candidate content-on-demand servers, to determine the sequence in which servers are to be requested to seek to reserve resources, the control means requesting in turn the servers to reserve resources and to send a message (j, l) whether resource reservation was sufficient, until one reports ( l) that resource reservation is sufficient.
A method of preparing a solid oxide fuel cell sub-component comprising a layer of YSZ solid oxide electrolyte material having a first side for supporting a layer of cathode material and a second side opposite the first side and suitable for receiving an anode material layer thereon, the method comprising the steps of: providing a layer of ceria on the first side of the layer of electrolyte material; and heating the electrolyte material having the ceria thereon to form a mixed phase layer comprising a mixed phase of at least zirconia and ceria on the first side of the layer of electrolyte material; characterised in that the heating step is performed at a temperature in the range of 1150°C to 1450°C and excess ceria remains on the surface of the mixed phase layer; and in that the excess ceria is removed. providing a layer of ceria on the first side of the layer of electrolyte material; and heating the electrolyte material having the ceria thereon to form a mixed phase layer comprising a mixed phase of at least zirconia and ceria on the first side of the layer of electrolyte material; characterised in that the heating step is performed at a temperature in the range of 1150°C to 1450°C and excess ceria remains on the surface of the mixed phase layer; and in that the excess ceria is removed.
A method for wireless communication, comprising: receiving at a user equipment UE a data transmission sent to multiple UEs with spatial division multiple access SDMA; processing the data transmission to recover data sent to the UE; determining acknowledgement ACK information for the recovered data; determining ACK resources for the data transmission sent to the multiple UEs, wherein the location and/or amount of ACK resources are determined based on the location and/or amount of downlink resources used for the data transmission; mapping the ACK information to a portion of the ACK resources, wherein the portion is allocated to the UE and wherein the multiple UEs are multiplexed on different portions of the ACK resources such as to preserve orthogonality on the uplink between the multiple UEs; and performing modulation on the mapped ACK information based on single-carrier frequency division multiplexing SC-FDM; wherein the step of determining ACK resources comprises determining an amount of ACK resources allocated to the UE based on a number of layers sent in the data transmission and determining a location of ACK resources allocated to the UE based on a particular layer sent to the UE. receiving at a user equipment UE a data transmission sent to multiple UEs with spatial division multiple access SDMA; processing the data transmission to recover data sent to the UE; determining acknowledgement ACK information for the recovered data; determining ACK resources for the data transmission sent to the multiple UEs, wherein the location and/or amount of ACK resources are determined based on the location and/or amount of downlink resources used for the data transmission; mapping the ACK information to a portion of the ACK resources, wherein the portion is allocated to the UE and wherein the multiple UEs are multiplexed on different portions of the ACK resources such as to preserve orthogonality on the uplink between the multiple UEs; and performing modulation on the mapped ACK information based on single-carrier frequency division multiplexing SC-FDM; wherein the step of determining ACK resources comprises determining an amount of ACK resources allocated to the UE based on a number of layers sent in the data transmission and determining a location of ACK resources allocated to the UE based on a particular layer sent to the UE.
A method comprising: storing, within a storage system, a dataset; scheduling, by a unified management plane, one or more transformations for one or more storage systems to apply to the dataset; identifying, in dependence upon one or more machine learning models to be executed on one or more graphical processing unit, GPU, servers, one or more transformations to apply to the dataset stored within one or more storage systems of a plurality of storage systems; generating, by the storage system in dependence upon the one or more transformations, a transformed dataset; and executing, by one or more of the GPU servers, one or more machine learning algorithms associated with the machine learning model using the transformed dataset as input. storing, within a storage system, a dataset; scheduling, by a unified management plane, one or more transformations for one or more storage systems to apply to the dataset; identifying, in dependence upon one or more machine learning models to be executed on one or more graphical processing unit, GPU, servers, one or more transformations to apply to the dataset stored within one or more storage systems of a plurality of storage systems; generating, by the storage system in dependence upon the one or more transformations, a transformed dataset; and executing, by one or more of the GPU servers, one or more machine learning algorithms associated with the machine learning model using the transformed dataset as input.
Method for automatically classifying at least one angiographic video recording of a part of a region comprising a human heart, said at least one video recording comprising a plurality of frames, characterized in that it comprises: - determining the total variation norm for each frame of said at least one video recording, - determining a group of frames for which the total variation norm is higher than a first threshold, - determining the standard deviation (31, 34, 37) of the total variation norm for the group of frames, and - comparing the standard deviation and a second threshold, the at least one video recording being a video recording of the left ventricle if the standard deviation is higher than the second threshold or a recording of either the left coronary artery or the right coronary artery if the standard deviation is lower than the second threshold. - determining the total variation norm for each frame of said at least one video recording, - determining a group of frames for which the total variation norm is higher than a first threshold, - determining the standard deviation (31, 34, 37) of the total variation norm for the group of frames, and - comparing the standard deviation and a second threshold,
Operating device for a domestic appliance having at least one concealed operating button which can be automatically moved between a concealed position and an extended position by means of a motor, wherein the motor is coupled to the operating button with a coupling facility in order to guide the movement of the operating button, said coupling facility having a guide element on which at least one at least partially helical guideway (10, 11) is embodied, characterized in that the motor is coupled to a first toothed wheel of the coupling facility and at least one rotational movement of the operating button can be generated about its longitudinal axis by moving the first toothed wheel and the guide element has a recess in an outer wall, through which the first toothed wheel of the coupling facility arranged outside of the guide element engages with a first toothed wheel of the operating button arranged within the guide element.
A lock-up clutch control device for a vehicle provided with a torque converter having a lock-up clutch between an engine and a transmission, comprising: a lock-up engagement control means that controls a lock-up capacity based on an engine torque signal, when engaging the lock-up clutch, characterized in that the lock-up engagement control means uses a predictive engine torque as the engine torque signal for use in the lock-up capacity control, the predictive engine torque being calculated based on an engine torque air response delay and a hydraulic response delay in a lock-up differential pressure and being faster in response than actual engine torque, and the lock-up engagement control means uses time obtained by subtracting a lock-up differential pressure hydraulic response delay time from an engine torque air response delay time as a dead time, and calculates the predictive engine torque from an engine torque command value and the dead time, wherein the engine torque air response delay time is calculated using an engine rotational speed (Ne) from an engine rotational speed sensor and a set air response delay time map, and the lock-up differential pressure hydraulic response delay time is calculated using an oil temperature from a transmission hydraulic oil temperature sensor and a set hydraulic response delay time map. a lock-up engagement control means that controls a lock-up capacity based on an engine torque signal, when engaging the lock-up clutch, characterized in that the lock-up engagement control means uses a predictive engine torque as the engine torque signal for use in the lock-up capacity control, the predictive engine torque being calculated based on an engine torque air response delay and a hydraulic response delay in a lock-up differential pressure and being faster in response than actual engine torque, and the lock-up engagement control means uses time obtained by subtracting a lock-up differential pressure hydraulic response delay time from an engine torque air response delay time as a dead time, and calculates the predictive engine torque from an engine torque command value and the dead time, wherein the engine torque air response delay time is calculated using an engine rotational speed (Ne) from an engine rotational speed sensor and a set air response delay time map, and the lock-up differential pressure hydraulic response delay time is calculated using an oil temperature from a transmission hydraulic oil temperature sensor and a set hydraulic response delay time map.
A method for transmitting ACKnowledgment/Negative ACKnowledgment, ACK/NACK, information at a User Equipment, UE, in a wireless communication system, the method comprising: receiving data from a Base Station, BS; acquiring a cyclic shift value of a Zadoff-Chu, ZC, sequence and an orthogonal cover Walsh code that are mapped to an ACK/NACK channel index for the UE based on a mapping relationship between ACK/NACK channel indexes and cyclic shift values of the ZC sequence and orthogonal cover Walsh codes; and transmitting ACK/NACK information for the received data using the acquired cyclic shift value and the orthogonal cover Walsh code, wherein according to the mapping relationship, first and third orthogonal cover Walsh codes (A, B) among the orthogonal cover Walsh codes are mapped respectively to two ACK/NACK channel indexes (706, 707) transmitted using an even-numbered cyclic shift value among the cyclic shift values, and a second orthogonal cover Walsh code is mapped to one ACK/NACK channel index transmitted using an odd-numbered cyclic shift value among the cyclic shift values, and wherein the first orthogonal cover Walsh code is [+1 +1 +1 +1], the second orthogonal cover Walsh code is [+1 -1 +1 -1], and the third orthogonal cover Walsh code is [+1 -1 -1 +1]. receiving data from a Base Station, BS; acquiring a cyclic shift value of a Zadoff-Chu, ZC, sequence and an orthogonal cover Walsh code that are mapped to an ACK/NACK channel index for the UE based on a mapping relationship between ACK/NACK channel indexes and cyclic shift values of the ZC sequence and orthogonal cover Walsh codes; and transmitting ACK/NACK information for the received data using the acquired cyclic shift value and the orthogonal cover Walsh code, wherein according to the mapping relationship, first and third orthogonal cover Walsh codes (A, B) among the orthogonal cover Walsh codes are mapped respectively to two ACK/NACK channel indexes (706, 707) transmitted using an even-numbered cyclic shift value among the cyclic shift values, and a second orthogonal cover Walsh code is mapped to one ACK/NACK channel index transmitted using an odd-numbered cyclic shift value among the cyclic shift values, and wherein the first orthogonal cover Walsh code is [+1 +1 +1 +1], the second orthogonal cover Walsh code is [+1 -1 +1 -1], and the third orthogonal cover Walsh code is [+1 -1 -1 +1].
A portable charging device for charging a portable electrical storage device that is removably disposed on a vehicle, including a security system comprising: at least one controller; and at least one communications module coupled to the at least one controller, wherein the at least one controller is configured to: receive information regarding authentication of a portable electrical energy storage device to be charged by the portable charging device; make a determination regarding allowing charging of the portable electrical energy storage device by the portable charging device based on the received information regarding authentication; record information regarding the charging to track usage of the portable charging device; communicate, to an external device, information regarding the usage of the portable charging device to charge the portable electrical energy storage device; and associate information regarding the usage of the portable charging device with a user account associated with the portable charging device and the portable electrical energy storage device. at least one controller; and at least one communications module coupled to the at least one controller, wherein the at least one controller is configured to: receive information regarding authentication of a portable electrical energy storage device to be charged by the portable charging device; make a determination regarding allowing charging of the portable electrical energy storage device by the portable charging device based on the received information regarding authentication; record information regarding the charging to track usage of the portable charging device; communicate, to an external device, information regarding the usage of the portable charging device to charge the portable electrical energy storage device; and associate information regarding the usage of the portable charging device with a user account associated with the portable charging device and the portable electrical energy storage device. receive information regarding authentication of a portable electrical energy storage device to be charged by the portable charging device; make a determination regarding allowing charging of the portable electrical energy storage device by the portable charging device based on the received information regarding authentication; record information regarding the charging to track usage of the portable charging device; communicate, to an external device, information regarding the usage of the portable charging device to charge the portable electrical energy storage device; and associate information regarding the usage of the portable charging device with a user account associated with the portable charging device and the portable electrical energy storage device.
A method for receiving, at a wireless device, a partial retransmission from a network node, the method comprising: receiving a control information message indicating a second transmission to be received in a Transmission Time Interval, TTI, comprising a plurality of symbols, the second transmission comprising retransmitted data in a subset of the plurality of symbols of the TTI, the retransmitted data comprising a retransmission of a portion of a first transmission; receiving the second transmission; determining, based on a mapping indicator indicating the subset of the plurality of symbols of the TTI, a location of the retransmitted data within the TTI of the second transmission, wherein the mapping indicator is comprised in the received control information message; and decoding the retransmitted data at the determined location. receiving a control information message indicating a second transmission to be received in a Transmission Time Interval, TTI, comprising a plurality of symbols, the second transmission comprising retransmitted data in a subset of the plurality of symbols of the TTI, the retransmitted data comprising a retransmission of a portion of a first transmission; receiving the second transmission; determining, based on a mapping indicator indicating the subset of the plurality of symbols of the TTI, a location of the retransmitted data within the TTI of the second transmission, wherein the mapping indicator is comprised in the received control information message; and decoding the retransmitted data at the determined location.