mhurhangee/patent-ind-claim-en huggingface dataset:
A method for scheduling multi-flow transmission, comprising: receiving , by a terminal device, media access control, MAC, layer configuration parameters of at least two MAC entities, wherein the MAC layer configuration parameters of each MAC entity of the at least two MAC entities comprise a set of mapping, the set of mapping comprises a first mapping and a second mapping, the MAC layer configuration parameters of each of the at least two MAC entities comprise a MAC layer-related parameter, and a first MAC entity of the at least two MAC entities maps to a macro cell and a second MAC entity of the at least two MAC entities maps to a low power node, LPN, cell; and executing , according to the MAC layer configuration parameters of the at least two MAC entities, by the terminal device, MAC layer functions corresponding to each MAC entity of the at least two MAC entities, wherein the first mapping is a mapping between a logic channel and each MAC entity, or a mapping between a radio bearer, RB, and each MAC entity; the second mapping is a mapping between each MAC entity and one or more cells or a mapping between each MAC entity and one or more physical entities; and the MAC layer-related parameter comprises at least one of the following items: a discontinuous reception, DRX, configuration parameter, a semi-persistent schedule, SPS, configuration parameter, and hybrid automatic repeat request, HARQ, retransmission times. receiving , by a terminal device, media access control, MAC, layer configuration parameters of at least two MAC entities, wherein the MAC layer configuration parameters of each MAC entity of the at least two MAC entities comprise a set of mapping, the set of mapping comprises a first mapping and a second mapping, the MAC layer configuration parameters of each of the at least two MAC entities comprise a MAC layer-related parameter, and a first MAC entity of the at least two MAC entities maps to a macro cell and a second MAC entity of the at least two MAC entities maps to a low power node, LPN, cell; and executing , according to the MAC layer configuration parameters of the at least two MAC entities, by the terminal device, MAC layer functions corresponding to each MAC entity of the at least two MAC entities, wherein the first mapping is a mapping between a logic channel and each MAC entity, or a mapping between a radio bearer, RB, and each MAC entity; the second mapping is a mapping between each MAC entity and one or more cells or a mapping between each MAC entity and one or more physical entities; and the MAC layer-related parameter comprises at least one of the following items: a discontinuous reception, DRX, configuration parameter, a semi-persistent schedule, SPS, configuration parameter, and hybrid automatic repeat request, HARQ, retransmission times.
Panel dividing system for dividing panel shaped workpieces, comprising a first feed table , at least one first dividing device having a first dividing line , a first removal table and at least one first conveying device , a workpiece lying on the feed table being movable toward the first dividing line by the first conveying device , the panel dividing system having at least one handling device for handling workpieces which have already been machined or are intended for machining, the handling device comprising a robot and the robot having a base and a working region , characterized in that there is a passive intermediate storage means above the first dividing line , onto which a workpiece machined or separated by the dividing device may be placed by the robot for intermediate storage, and in that the working region of the robot at least partially covers a region of the passive intermediate storage means in plan view.
User equipment for communicating with a base station in a mobile communication system, comprising: an indication unit configured to indicate (S201) that the user equipment has a capability of changing a sequence number length of a Radio Link Control Packet Data Unit, RLC PDU; a reception unit configured to receive (S202) an indication from the base station to change the sequence number length of an RLC PDU; a re-establishment unit configured to perform re-establishment of (S206, S207) an RLC entity upon receiving the indication; and a communication unit configured to use the RLC PDU with the changed sequence number length to communicate (S208) with the base station after completion of the re-establishment, wherein the changed sequence number length of the RLC PDU in an RLC-Acknowledge Mode, RLC-AM, is more than or equal to 11 bits, wherein the indication further includes an indication to perform an intra-cell handover operation, and in response to receiving the indication to perform the intra-cell handover operation, the re-establishment unit is adapted to perform the handover operation to re-establish the RLC entity, wherein in response to receiving the indication to perform the handover operation and the indication to change the sequence number length of the RLC PDU, a Medium Access Control, MAC, processing unit is adapted to prevent an already configured Secondary Cell, SCell, from being deactivated (S206) in the intra-cell handover operation. an indication unit configured to indicate (S201) that the user equipment has a capability of changing a sequence number length of a Radio Link Control Packet Data Unit, RLC PDU; a reception unit configured to receive (S202) an indication from the base station to change the sequence number length of an RLC PDU; a re-establishment unit configured to perform re-establishment of (S206, S207) an RLC entity upon receiving the indication; and a communication unit configured to use the RLC PDU with the changed sequence number length to communicate (S208) with the base station after completion of the re-establishment, wherein the changed sequence number length of the RLC PDU in an RLC-Acknowledge Mode, RLC-AM, is more than or equal to 11 bits, wherein the indication further includes an indication to perform an intra-cell handover operation, and in response to receiving the indication to perform the intra-cell handover operation, the re-establishment unit is adapted to perform the handover operation to re-establish the RLC entity, wherein in response to receiving the indication to perform the handover operation and the indication to change the sequence number length of the RLC PDU, a Medium Access Control, MAC, processing unit is adapted to prevent an already configured Secondary Cell, SCell, from being deactivated (S206) in the intra-cell handover operation.
A secondary release arrangement for an inflatable evacuation system comprising: a releasable restraint ; a first strap coupled to the releasable restraint via a thread , wherein the first strap is looped around a first shackle of the releasable restraint and sewn to itself via the thread ; and a flexible member in operable communication with the first strap , the flexible member coupled to the thread and configured to break the stitching of the thread and thereby releasing the first strap from the releasable restraint in response to a tensile force in the flexible member exceeding a selected threshold. a releasable restraint ; a first strap coupled to the releasable restraint via a thread , wherein the first strap is looped around a first shackle of the releasable restraint and sewn to itself via the thread ; and a flexible member in operable communication with the first strap , the flexible member coupled to the thread and configured to break the stitching of the thread and thereby releasing the first strap from the releasable restraint in response to a tensile force in the flexible member exceeding a selected threshold.
An eco-run control device that is mounted on a vehicle and is capable of performing an eco-run control operation to stop an engine if predetermined stop requirements are satisfied and later restart the engine if predetermined restart requirements are satisfied, the eco-run control device comprising: a starter drive request transmitting unit that transmits a starter drive allowing request signal to an engine control device, if the predetermined start requirements are satisfied while the engine is being shifted to a stopped state through the eco-run control operation; and a starter drive control unit that drives a starter, if receiving a starter drive allowing signal from the engine control device after the starter drive request transmitting unit transmits the starter drive allowing request signal to the engine control device, the starter drive control unit driving the starter if detecting a decrease of the engine speed to a predetermined speed or lower between the time when the starter drive request transmitting unit transmits the starter drive allowing request signal and a time when the starter drive allowing signal is received from the engine control device and even if the starter drive allowing signal is not received, wherein the predetermined speed is a speed with which the eco-run control device is able to enter the engine rotating state by fuel injection without the starter driving. a starter drive request transmitting unit that transmits a starter drive allowing request signal to an engine control device, if the predetermined start requirements are satisfied while the engine is being shifted to a stopped state through the eco-run control operation; and a starter drive control unit that drives a starter, if receiving a starter drive allowing signal from the engine control device after the starter drive request transmitting unit transmits the starter drive allowing request signal to the engine control device, the starter drive control unit driving the starter if detecting a decrease of the engine speed to a predetermined speed or lower between the time when the starter drive request transmitting unit transmits the starter drive allowing request signal and a time when the starter drive allowing signal is received from the engine control device and even if the starter drive allowing signal is not received, wherein the predetermined speed is a speed with which the eco-run control device is able to enter the engine rotating state by fuel injection without the starter driving.
A roll exchange chamber for exchanging a substrate roll , characterized by comprising: - a rotatable base construction being rotatable around a central axis , the base construction comprising: - a first roll holder for holding a first substrate roll ; - a second roll holder for holding a second substrate roll ; and - a wall for providing a first compartment and a second compartment in the roll exchange chamber , the wall being arranged between the first roll holder and the second roll holder . - a rotatable base construction being rotatable around a central axis , the base construction comprising: - a first roll holder for holding a first substrate roll ; - a second roll holder for holding a second substrate roll ; and - a wall for providing a first compartment and a second compartment in the roll exchange chamber , the wall being arranged between the first roll holder and the second roll holder . - a first roll holder for holding a first substrate roll ; - a second roll holder for holding a second substrate roll ; and - a wall for providing a first compartment and a second compartment in the roll exchange chamber , the wall being arranged between the first roll holder and the second roll holder .
Household appliance, preferably configured as a washing machine or washer dryer with a laundry drum that can be rotated about an essentially horizontally aligned axis and is located in a tub that encloses the laundry drum essentially on all sides, wherein a tubular heating body with heating tubes is present in relation to a region between a casing of the drum extending in a circumferential direction and a lower wall of the tub to be considered as the base , wherein the tubular heating body is surrounded by a liquid , such as wash liquor, at least during operation of the domestic appliance, wherein said liquid can preferably be heated by the tubular heating body in predetermined operating phases and a flow forms in the liquid , characterised in that at least one flow-influencing region is embodied between the tubular heating body and the base of the tub and is embodied so that it blocks a part of the flow of the liquid in a region below the heating tubes and is diverted into a region in which the heating tubes are located, wherein the at least one flow-influencing region is embodied on the base of the tub or on a stream plate , which is inserted between the tubular heating body and the base of the tub .
An apparatus comprising: an eyepiece having a front surface , a back surface spaced apart from the front surface , and an edge forming a perimeter of the eyepiece , the eyepiece having therein an angled surface and an additional angled surface to direct eye-measurement light reflected from an eye into the eyepiece and to direct display light out of the eyepiece to the eye; a first waveguide for directing display light out of the eyepiece to the eye, the first waveguide being formed in the eyepiece and extending from the angled surface to the edge , the first waveguide being optically coupled to a first portion of the angled surface having a first surface treatment; and a second waveguide for directing eye-measurement light reflected from an eye into the eyepiece , the second waveguide being formed in the eyepiece , extending from the additional angled surface to the edge , and being optically coupled to a second portion of the angled surface having a second surface treatment. an eyepiece having a front surface , a back surface spaced apart from the front surface , and an edge forming a perimeter of the eyepiece , the eyepiece having therein an angled surface and an additional angled surface to direct eye-measurement light reflected from an eye into the eyepiece and to direct display light out of the eyepiece to the eye; a first waveguide for directing display light out of the eyepiece to the eye, the first waveguide being formed in the eyepiece and extending from the angled surface to the edge , the first waveguide being optically coupled to a first portion of the angled surface having a first surface treatment; and a second waveguide for directing eye-measurement light reflected from an eye into the eyepiece , the second waveguide being formed in the eyepiece , extending from the additional angled surface to the edge , and being optically coupled to a second portion of the angled surface having a second surface treatment.
A device for immobilizing a wheeled vehicle, comprising: • a first chock member configured to be arranged on a first side of, in front of or behind, a wheel of a said vehicle in a state of use of the device , • a second chock member configured to be arranged on a second opposite side of said wheel in said state of use, and • an arrangement interconnecting said first and second chock members and controllable to cause relative movement of these towards and from each other so as to move the chock members between a locking position in which the first and second chock members are wedged between the wheel and a ground on which the wheel rests on said first and second sides of the wheel , respectively, so as to prevent the wheel from moving, and a releasing position in which at least one of the chock members is moved away from and located at a distance to the wheel so as to allow the wheel to move, characterized in that the device further comprises: • means configured to rest on said ground in said state of use of the device and hold the chock members at a distance above the ground in a rest position and to allow the chock members to move to the ground while storing potential energy by these means when the chock members are moved towards each other by control of said arrangement and by that pushed against the wheel and guided along this towards the ground for obtaining said locking position of the chock members , and that these means are configured to automatically return to said rest position by releasing the potential energy stored when the chock members are moved away from each other and from said locking position. • a first chock member configured to be arranged on a first side of, in front of or behind, a wheel of a said vehicle in a state of use of the device , • a second chock member configured to be arranged on a second opposite side of said wheel in said state of use, and • an arrangement interconnecting said first and second chock members and controllable to cause relative movement of these towards and from each other so as to move the chock members between a locking position in which the first and second chock members are wedged between the wheel and a ground on which the wheel rests on said first and second sides of the wheel , respectively, so as to prevent the wheel from moving, and a releasing position in which at least one of the chock members is moved away from and located at a distance to the wheel so as to allow the wheel to move, • means configured to rest on said ground in said state of use of the device and hold the chock members at a distance above the ground in a rest position and to allow the chock members to move to the ground while storing potential energy by these means when the chock members are moved towards each other by control of said arrangement and by that pushed against the wheel and guided along this towards the ground for obtaining said locking position of the chock members , and that these means are configured to automatically return to said rest position by releasing the potential energy stored when the chock members are moved away from each other and from said locking position.
A propeller fan comprising: a boss provided on a rotation axis (RC); and a blade provided at an outer circumferential portion of the boss , the blade including a leading edge and a trailing edge , wherein the blade has a first area , a first sub-area (53-1) located inward of the first area , and a second sub-area (53-2) located outward of the first area , wherein the first area includes a notch formed in the trailing edge , the propeller fan being characterised in that each of the first sub-area (53-1) and the second sub-area (53-2) includes plural notches continuously formed in the trailing edge , and wherein the notch in the first area is larger than each of the plural notches in each of the first sub-area (53-1) and the second sub-area (53-2). a boss provided on a rotation axis (RC); and a blade provided at an outer circumferential portion of the boss , the blade including a leading edge and a trailing edge , wherein the blade has a first area , a first sub-area (53-1) located inward of the first area , and a second sub-area (53-2) located outward of the first area , wherein the first area includes a notch formed in the trailing edge , the propeller fan being characterised in that each of the first sub-area (53-1) and the second sub-area (53-2) includes plural notches continuously formed in the trailing edge , and wherein the notch in the first area is larger than each of the plural notches in each of the first sub-area (53-1) and the second sub-area (53-2).
A robot cleaner comprising: a driver including a drive motor configured to cause the robot cleaner to move; a memory storing information on a plurality of pollution maps (2, 2-1, 2-2, 2-3, 121, 320, 410, 420) for a degree of pollution for each location in a map corresponding to a place in which the robot cleaner is located; and a processor operatively connected to the driver and the memory and configured to control the robot cleaner , characterized in that the processor is configured to: identify a pollution source based on information on the pollution map (2, 2-1, 2-2, 2-3, 121, 320, 410, 420), and control the driver to move the robot cleaner based on the location of the identified pollution source on the map. a driver including a drive motor configured to cause the robot cleaner to move; a memory storing information on a plurality of pollution maps (2, 2-1, 2-2, 2-3, 121, 320, 410, 420) for a degree of pollution for each location in a map corresponding to a place in which the robot cleaner is located; and a processor operatively connected to the driver and the memory and configured to control the robot cleaner , characterized in that the processor is configured to: identify a pollution source based on information on the pollution map (2, 2-1, 2-2, 2-3, 121, 320, 410, 420), and control the driver to move the robot cleaner based on the location of the identified pollution source on the map.
Method for determining a carbon dioxide concentration in measuring gas, comprising the steps of: - branching the measuring gas from a main line of a medical device during an inspiratory phase of a person connected to the medical device as inspiration gas, and during an expiratory phase of the person as expiration gas to a sensor unit through a branch line , - conveying the measuring gas from the main line through the branch line to the sensor unit by means of a fluid conveying unit , - adaptively adjusting the fluid conveying unit , taking into account a respiratory tract pressure in the main line for generating a uniform flow rate and/or gas pressure of the measuring gas in the branch line to the sensor unit during the inspiratory phase and the expiratory phase, and - determining the carbon dioxide concentration in the measuring gas by means of the sensor unit , characterized in that the fluid conveying unit for conveying the measuring gas from the main line through the branch line to the sensor unit comprises a piezo pump, and an operating voltage of the piezo pump, for generating a uniform flow rate and/or gas pressure of the measuring gas in the branch line to the sensor unit , is adaptively adjusted, taking into account the respiratory tract pressure and using a look-up table . - branching the measuring gas from a main line of a medical device during an inspiratory phase of a person connected to the medical device as inspiration gas, and during an expiratory phase of the person as expiration gas to a sensor unit through a branch line , - conveying the measuring gas from the main line through the branch line to the sensor unit by means of a fluid conveying unit , - adaptively adjusting the fluid conveying unit , taking into account a respiratory tract pressure in the main line for generating a uniform flow rate and/or gas pressure of the measuring gas in the branch line to the sensor unit during the inspiratory phase and the expiratory phase, and - determining the carbon dioxide concentration in the measuring gas by means of the sensor unit ,