mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile floor cleaning robot comprising: a robot body defining a forward drive direction (F); a drive supporting the robot body to maneuver the robot across a surface, the drive comprising right and left drive wheels disposed on corresponding right and left portions of the robot body; and a cleaning assembly disposed on the robot body , the cleaning assembly comprising: a pad holder disposed forward of the drive wheels and configured to receive a cleaning pad ; a reservoir (475; 504) to hold a volume of fluid ; and a fluid applicator in fluid communication with the reservoir, the fluid applicator configured to apply the fluid along the forward drive direction (F) forward of the pad holder ; characterized in that the robot is configured to apply fluid to a floor surface at an initial volumetric flow rate to moisten the cleaning pad , the initial volumetric flow rate being relatively higher than a subsequent volumetric flow rate when the cleaning pad is moistened. a robot body defining a forward drive direction (F); a drive supporting the robot body to maneuver the robot across a surface, the drive comprising right and left drive wheels disposed on corresponding right and left portions of the robot body; and a cleaning assembly disposed on the robot body , the cleaning assembly comprising: a pad holder disposed forward of the drive wheels and configured to receive a cleaning pad ; a reservoir (475; 504) to hold a volume of fluid ; and a fluid applicator in fluid communication with the reservoir, the fluid applicator configured to apply the fluid along the forward drive direction (F) forward of the pad holder ; a pad holder disposed forward of the drive wheels and configured to receive a cleaning pad ; a reservoir (475; 504) to hold a volume of fluid ; and a fluid applicator in fluid communication with the reservoir, the fluid applicator configured to apply the fluid along the forward drive direction (F) forward of the pad holder ; characterized in that the robot is configured to apply fluid to a floor surface at an initial volumetric flow rate to moisten the cleaning pad , the initial volumetric flow rate being relatively higher than a subsequent volumetric flow rate when the cleaning pad is moistened.
A method performed by a user plane function, UPF, in a wireless communication system, comprising: receiving a data packet from a sending device; identifying a packet forwarding control plane, PFCP, session context associated with the data packet; determining whether an existing packet detection rule, PDR, associated with the PFCP session context should be modified; transmitting a session modification request toward a session management function, SMF, requesting the SMF to provision a modified PDR at the UPF, the session modification request describing a modification to the existing PDR; receiving a session modification response from the SMF, the session modification response provisioning the modified PDR for the PFCP session context at the UPF; and applying the modified PDR on the data packet. receiving a data packet from a sending device; identifying a packet forwarding control plane, PFCP, session context associated with the data packet; determining whether an existing packet detection rule, PDR, associated with the PFCP session context should be modified; transmitting a session modification request toward a session management function, SMF, requesting the SMF to provision a modified PDR at the UPF, the session modification request describing a modification to the existing PDR; receiving a session modification response from the SMF, the session modification response provisioning the modified PDR for the PFCP session context at the UPF; and applying the modified PDR on the data packet.
A computing device comprising: a memory that stores a set of instructions; a first and a second ambient lighting brightness sensor ; and a processor that access the instructions in memory , the processor further configured to: receive, via the first and second ambient lighting brightness sensors , a first and a second ambient lighting level from respective ones of a first surface and a second surface of the computing device ; determine a brightness differential between the first and second ambient lighting levels; and transition a power state of the computing device to an alternate power state based on the brightness differential, wherein the first surface is a device front housing surface within which a display screen is disposed, and the second surface is a housing surface within which no display screen is disposed. a memory that stores a set of instructions; a first and a second ambient lighting brightness sensor ; and a processor that access the instructions in memory , the processor further configured to: receive, via the first and second ambient lighting brightness sensors , a first and a second ambient lighting level from respective ones of a first surface and a second surface of the computing device ; determine a brightness differential between the first and second ambient lighting levels; and transition a power state of the computing device to an alternate power state based on the brightness differential, wherein the first surface is a device front housing surface within which a display screen is disposed, and the second surface is a housing surface within which no display screen is disposed. receive, via the first and second ambient lighting brightness sensors , a first and a second ambient lighting level from respective ones of a first surface and a second surface of the computing device ; determine a brightness differential between the first and second ambient lighting levels; and transition a power state of the computing device to an alternate power state based on the brightness differential, wherein the first surface is a device front housing surface within which a display screen is disposed, and the second surface is a housing surface within which no display screen is disposed.
A method for controlling vehicle creep, comprising: controlling the vehicle to enter an electric creep mode in which a motor operates as a driving source to drive an engine to operate to provide a creep force for the vehicle in response to release of a brake operation of a first braking process; controlling the vehicle to exit the electric creep mode according to an electric creep exit condition; and the method being characterized in that it further comprises: restricting the vehicle from entering the electric creep mode according to a second predetermined condition in response to release of a brake operation of a second braking process after the first braking process. controlling the vehicle to enter an electric creep mode in which a motor operates as a driving source to drive an engine to operate to provide a creep force for the vehicle in response to release of a brake operation of a first braking process; controlling the vehicle to exit the electric creep mode according to an electric creep exit condition; and the method being characterized in that it further comprises: restricting the vehicle from entering the electric creep mode according to a second predetermined condition in response to release of a brake operation of a second braking process after the first braking process.
Fiber processing system for opening and mixing fiber material, with a multiple number of bale openers for opening fiber bales (FB), implemented as weighing tray feeders and conveying devices (4a, 4b; 14a, 14b) downstream of the bale openers for mixing and conveying the opened fiber material to a downstream processing device , for example a mixing chamber or a carding feed, wherein at least one of the conveying devices (4a, 4b; 14a, 14b) comprises one or more conveyor belts, characterized in that the bale openers are divided into at least two opener groups (3a, 3b; 13a, 13b), each of which produces a fiber mixture (M1, M2), and that each opener group (3a, 3b; 13a, 13b) is allocated with a conveying device (4a, 4b; 14a, 14b), whereas the conveying devices (4a, 4b; 14a, 14b) are designed and arranged in such a manner that the respective fiber mixture (M1, M2) is transported away in relation to the associated opener group (3a, 3b; 13a, 13b) in different directions (R1, R2; R1', R2') and the fiber mixtures (M1, M2) are combined before or in the processing device into an overall fiber mixture (GM).
A digital camera , comprising: a) an optical lens module including N ≥ 3 lens elements L i having a first optical axis, each lens element comprising a respective front surface S 2i-1 and a respective rear surface S 2i , the lens element surfaces marked S k where 1≤ k ≤ 2N, wherein the optical lens module is a front aperture lens, wherein each lens element surface has a clear aperture value CA(S k ) and a clear height value CH(S k ), and wherein CA(S1) is the clear aperture value of surface S1, b) an image sensor having a sensor diagonal SD; and c) an optical path folding element (OPFE) for providing a folded optical path between an object and the lens elements, wherein a ratio CA(S 2N )/SD between the clear aperture value of a last lens element CA(S 2N ) and SD is smaller than 0.8, characterised in that the clear aperture value CA(S1) of surface S1 is greater than a clear aperture value of each of surfaces S2 to S2N, wherein CA(S 1 ) ≥ 1.2 × CA(S k ) for 3≤ k ≤2N or in that CA(S 1 ) is greater than CA(S k ) for 2 ≤ k ≤ 2N-1 and is equal to CA(S 2N ). a) an optical lens module including N ≥ 3 lens elements L i having a first optical axis, each lens element comprising a respective front surface S 2i-1 and a respective rear surface S 2i , the lens element surfaces marked S k where 1≤ k ≤ 2N, wherein the optical lens module is a front aperture lens, wherein each lens element surface has a clear aperture value CA(S k ) and a clear height value CH(S k ), and wherein CA(S1) is the clear aperture value of surface S1, b) an image sensor having a sensor diagonal SD; and c) an optical path folding element (OPFE) for providing a folded optical path between an object and the lens elements, wherein a ratio CA(S 2N )/SD between the clear aperture value of a last lens element CA(S 2N ) and SD is smaller than 0.8, characterised in that the clear aperture value CA(S1) of surface S1 is greater than a clear aperture value of each of surfaces S2 to S2N, wherein CA(S 1 ) ≥ 1.2 × CA(S k ) for 3≤ k ≤2N or in that CA(S 1 ) is greater than CA(S k ) for 2 ≤ k ≤ 2N-1 and is equal to CA(S 2N ).
A user equipment, UE , the UE comprising: detection circuitry to detect a radio link failure, RLF, event; connection circuitry , coupled with the detection circuitry , configured to: acquire a master information block, MIB, from a target cell; determine whether first system information, SI, of the target cell is available at the UE based on said detecting of the RLF event; if the first SI is determined to not be available, acquire one or more system information blocks, SIBs, with second SI and perform a radio resource connection, RRC, connection reestablishment procedure based on the second SI; if the first SI is determined to be available, determine whether the first SI and the MIB were received within a common broadcast control channel, BCCH, modification period; if the first SI and the MIB are determined to have been received within the common BCCH modification period, perform an RRC connection reestablishment procedure based on the first SI; if the first SI and the MIB are determined to have not been received within the common BCCH modification period, determine whether the first SI is valid; if the first SI is determined to be valid, perform the RRC connection reestablishment procedure based on the first SI; and if the first SI is determined to be not valid, acquire one or more SIBs with second SI and perform the RRC connection reestablishment procedure based on the second SI. acquire a master information block, MIB, from a target cell; determine whether first system information, SI, of the target cell is available at the UE based on said detecting of the RLF event; if the first SI is determined to not be available, acquire one or more system information blocks, SIBs, with second SI and perform a radio resource connection, RRC, connection reestablishment procedure based on the second SI; if the first SI is determined to be available, determine whether the first SI and the MIB were received within a common broadcast control channel, BCCH, modification period; if the first SI and the MIB are determined to have been received within the common BCCH modification period, perform an RRC connection reestablishment procedure based on the first SI; if the first SI and the MIB are determined to have not been received within the common BCCH modification period, determine whether the first SI is valid; if the first SI is determined to be valid, perform the RRC connection reestablishment procedure based on the first SI; and if the first SI is determined to be not valid, acquire one or more SIBs with second SI and perform the RRC connection reestablishment procedure based on the second SI.
An ink cartridge in which gel ink that is to be supplied to an ink tank of an inkjet recording device is reserved, comprising: an ink pack including an ink container formed of a soft film material in which the ink is contained and an ink lead-out section for guiding the ink inside the ink container to an outside of the ink container ; and an outer box which houses the ink pack and which has an ink lead-out opening through which the ink lead-out section is exposed outside, wherein the outer box has a pressure applying opening formed therein through which the ink container is exposed and a pressure is capable to be applied to the ink container or has a first perforation line along which the outer box is to be broken to form the pressure applying opening formed thereon, wherein the outer box has an upper surface and a front surface and characterized in that the pressure applying opening extends over the upper surface and the front surface . an ink pack including an ink container formed of a soft film material in which the ink is contained and an ink lead-out section for guiding the ink inside the ink container to an outside of the ink container ; and an outer box which houses the ink pack and which has an ink lead-out opening through which the ink lead-out section is exposed outside, wherein the outer box has a pressure applying opening formed therein through which the ink container is exposed and a pressure is capable to be applied to the ink container or has a first perforation line along which the outer box is to be broken to form the pressure applying opening formed thereon, wherein the outer box has an upper surface and a front surface and characterized in that the pressure applying opening extends over the upper surface and the front surface .
Drilling-milling device comprising a housing , a drive shaft , a spindle and a brake , the drive shaft and the spindle being coupled to one another by means of a gear mechanism, the brake being coupled to the spindle and a braking torque of the brake being transmitted to the housing , characterized in that the brake is a viscous brake or an electric generator.
A link failure recovery method, applied to a case in which a link failure occurs in a cell, performed by a terminal device, and comprising: sending (S432; S441) to a network device a first media access control-control element, MAC-CE, wherein the first MAC-CE comprises information about the cell in which the link failure occurs; starting (S450) a first timer; receiving (S483) a third downlink control information, DCI, from the network device, wherein the third DCI is used to indicate a second resource for carrying a first request message: and sending (S484; S491) to the network device the first request message when the first timer expires (S480), wherein the first request message is the first MAC-CE, or the first request message is a second MAC-CE, and the second MAC-CE comprises information about at least one cell in which a link failure occurs; wherein the sending a first MAC-CE comprises: sending the first MAC-CE on a first resource; and the sending a first request message comprises: sending the first request message on the second resource, wherein cells in which the first resource and the second resource are located are different. sending (S432; S441) to a network device a first media access control-control element, MAC-CE, wherein the first MAC-CE comprises information about the cell in which the link failure occurs; starting (S450) a first timer; receiving (S483) a third downlink control information, DCI, from the network device, wherein the third DCI is used to indicate a second resource for carrying a first request message: and sending (S484; S491) to the network device the first request message when the first timer expires (S480), wherein the first request message is the first MAC-CE, or the first request message is a second MAC-CE, and the second MAC-CE comprises information about at least one cell in which a link failure occurs; wherein the sending a first MAC-CE comprises: sending the first MAC-CE on a first resource; and the sending a first request message comprises: sending the first request message on the second resource, wherein cells in which the first resource and the second resource are located are different. sending the first MAC-CE on a first resource; and the sending a first request message comprises: sending the first request message on the second resource, wherein cells in which the first resource and the second resource are located are different. sending the first request message on the second resource, wherein cells in which the first resource and the second resource are located are different.
An earphone , comprising at least: a housing and an eartip ; wherein the housing comprises a housing body and a sound outlet connected to the housing body , and at least one first vent hole is disposed on the housing ; the eartip cooperates with the sound outlet such that the eartip is fixedly positioned on the sound outlet such that it does not fall off of the sound outlet , wherein the position of the eartip is adjustable relative to the sound outlet such that the at least one first vent hole ranges from being completely exposed to being completely shielded based on a positional adjustment of the eartip relative to the sound outlet , wherein the positional adjustment of the eartip relative to the sound outlet defines a cooperation state of the eartip and the sound outlet ; the eartip comprises an inner enclosing shell , wherein at least one third vent hole is disposed on the inner enclosing shell ; the at least one first vent hole comprises at least one vent hole group ; each of the at least one vent hole group comprises a first sub vent hole and a second sub vent hole ; and an inner diameter of the first sub vent hole is different from an inner diameter of the second sub vent hole ; an inner diameter of the third vent hole is greater than the inner diameter of the first sub vent hole and the inner diameter of the second sub vent hole ; and based on the cooperation state of the eartip and the sound outlet , the third vent hole is aligned with the first sub vent hole , or the third vent hole is aligned with the second sub vent hole . a housing and an eartip ; wherein the housing comprises a housing body and a sound outlet connected to the housing body , and at least one first vent hole is disposed on the housing ; the eartip cooperates with the sound outlet such that the eartip is fixedly positioned on the sound outlet such that it does not fall off of the sound outlet , wherein the position of the eartip is adjustable relative to the sound outlet such that the at least one first vent hole ranges from being completely exposed to being completely shielded based on a positional adjustment of the eartip relative to the sound outlet , wherein the positional adjustment of the eartip relative to the sound outlet defines a cooperation state of the eartip and the sound outlet ; the eartip comprises an inner enclosing shell , wherein at least one third vent hole is disposed on the inner enclosing shell ; the at least one first vent hole comprises at least one vent hole group ; each of the at least one vent hole group comprises a first sub vent hole and a second sub vent hole ; and an inner diameter of the first sub vent hole is different from an inner diameter of the second sub vent hole ; an inner diameter of the third vent hole is greater than the inner diameter of the first sub vent hole and the inner diameter of the second sub vent hole ; and based on the cooperation state of the eartip and the sound outlet , the third vent hole is aligned with the first sub vent hole , or the third vent hole is aligned with the second sub vent hole .
A packaging device for waste storage device arranged in an upper part of a waste storage part for storing a waste item and adapted to seal the waste item and store it in the waste storage part , comprising: a frame member which is formed with an inlet for allowing the waste item to be thrown in; two film feed rollers which are provided in the frame member to be a predetermined distance apart from each other; two waste sealing rollers which are provided in the frame member and arranged such that the peripheral surfaces thereof are in contact via films pulled out from the respective film feed rollers and at least one of which has the peripheral surface that is elastically deformed along the shape of the waste item; a driving part which rotates the respective waste sealing rollers ; characterized by two friction rollers which are driven and rotated to pull the waste item having passed between the two waste sealing rollers downward in a state where the waste item is sealed between two films, and located below the two waste sealing rollers ; wherein the two friction rollers are rotatably provided in housings arranged below the two waste scaling rollers and at least parts of the respective friction rollers in contact with the films are exposed to the outside through opening parts formed in the respective housings . a frame member which is formed with an inlet for allowing the waste item to be thrown in; two film feed rollers which are provided in the frame member to be a predetermined distance apart from each other; two waste sealing rollers which are provided in the frame member and arranged such that the peripheral surfaces thereof are in contact via films pulled out from the respective film feed rollers and at least one of which has the peripheral surface that is elastically deformed along the shape of the waste item; a driving part which rotates the respective waste sealing rollers ; characterized by two friction rollers which are driven and rotated to pull the waste item having passed between the two waste sealing rollers downward in a state where the waste item is sealed between two films, and located below the two waste sealing rollers ; wherein the two friction rollers are rotatably provided in housings arranged below the two waste scaling rollers and at least parts of the respective friction rollers in contact with the films are exposed to the outside through opening parts formed in the respective housings .
A liquid composition comprising a mixture of: a) ≥ 0,001 to ≤ 1 wt-% of a C 6 to C 22 sulfoperoxycarboxylic acid, b) ≥ 6 to ≤ 16.5 wt-% of a C 1 to C 4 percarboxylic acid, c) > 0 to ≤ 1 wt-% of a a C 5 to C 10 percarboxylic acid, d) ≥ 5 to ≤ 30 wt-% of a peroxide agent, e) and up to 100 wt-% water; wherein the composition comprises free sulfocarboxylic acid, free C 1 to C 4 carboxylic acid and free C 5 to C 10 carboxylic acid, wherein the weight ratio of C 6 to C 22 sulfocarboxylic acid to C 6 to C 22 sulfoperoxycarboxylic acid is 0.1:1 to 25:1. a) ≥ 0,001 to ≤ 1 wt-% of a C 6 to C 22 sulfoperoxycarboxylic acid, b) ≥ 6 to ≤ 16.5 wt-% of a C 1 to C 4 percarboxylic acid, c) > 0 to ≤ 1 wt-% of a a C 5 to C 10 percarboxylic acid, d) ≥ 5 to ≤ 30 wt-% of a peroxide agent, e) and up to 100 wt-% water; wherein the composition comprises free sulfocarboxylic acid, free C 1 to C 4 carboxylic acid and free C 5 to C 10 carboxylic acid, wherein the weight ratio of C 6 to C 22 sulfocarboxylic acid to C 6 to C 22 sulfoperoxycarboxylic acid is 0.1:1 to 25:1.