mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: receiving , by a user equipment, downlink control information, DCI, wherein the DCI is used to schedule a transport block, TB, to be transmitted on a downlink channel; and when the DCI meets a first condition, skipping, by the user equipment, feeding back a positive acknowledgment, ACK, wherein the ACK is used to indicate that the TB is correctly received and skipping, by the user equipment, feeding back a negative acknowledgment, NACK, wherein the NACK is used to indicate that the TB is not correctly received, characterized in that the first condition comprises: an aggregation level, AL, of a physical downlink control channel, PDCCH, carrying the DCI is greater than or equal to an AL threshold. receiving , by a user equipment, downlink control information, DCI, wherein the DCI is used to schedule a transport block, TB, to be transmitted on a downlink channel; and when the DCI meets a first condition, skipping, by the user equipment, feeding back a positive acknowledgment, ACK, wherein the ACK is used to indicate that the TB is correctly received and skipping, by the user equipment, feeding back a negative acknowledgment, NACK, wherein the NACK is used to indicate that the TB is not correctly received, characterized in that the first condition comprises: an aggregation level, AL, of a physical downlink control channel, PDCCH, carrying the DCI is greater than or equal to an AL threshold.
A fire sprinkler system comprising: a corrosion monitoring device positioned in a flow path of the fire sprinkler system , the corrosion monitoring device including a first pipe portion having opposite ends and a middle portion including a wall having a first wall thickness (T1), the opposite ends of the first pipe portion each including a wall having a second wall thickness (T2), a structure coupled to said first pipe portion and defining a sealed chamber between the structure and the first pipe portion , wherein the sealed chamber extends about at least a portion of the first pipe portion , and a sensor for sensing a pressure in the sealed chamber and/or sensing a presence of liquid in the sealed chamber , the sensor configured to detect a change in the pressure in the sealed chamber and/or the presence of a liquid in the sealed chamber corresponding to a breach of the first pipe portion portion due to corrosion, and the sensor configured to generate a signal in response to detecting a change in the pressure in the sealed chamber and/or the presence of a liquid in the sealed chamber ; and wherein the system further comprises a second and a third pipe portion coupled to the opposite ends of the first pipe portion , the second and third pipe portions each having a wall having the second wall thickness (T2); and wherein the second wall thickness (T2) is greater than the first wall thickness (T1). a corrosion monitoring device positioned in a flow path of the fire sprinkler system , the corrosion monitoring device including a first pipe portion having opposite ends and a middle portion including a wall having a first wall thickness (T1), the opposite ends of the first pipe portion each including a wall having a second wall thickness (T2), a structure coupled to said first pipe portion and defining a sealed chamber between the structure and the first pipe portion , wherein the sealed chamber extends about at least a portion of the first pipe portion , and a sensor for sensing a pressure in the sealed chamber and/or sensing a presence of liquid in the sealed chamber , the sensor configured to detect a change in the pressure in the sealed chamber and/or the presence of a liquid in the sealed chamber corresponding to a breach of the first pipe portion portion due to corrosion, and the sensor configured to generate a signal in response to detecting a change in the pressure in the sealed chamber and/or the presence of a liquid in the sealed chamber ; and wherein the system further comprises a second and a third pipe portion coupled to the opposite ends of the first pipe portion , the second and third pipe portions each having a wall having the second wall thickness (T2); and wherein the second wall thickness (T2) is greater than the first wall thickness (T1).
An integrated circuit comprising: a central processing unit coupled to a system bus; a network interface configured to interface with an external device; and a crypto neuromorphic core coupled to the system bus, the crypto neuromorphic core comprising a processor, an internal bus, and a non-transitory computer-readable memory, wherein the crypto neuromorphic core is configured to: store a private key in the non-transitory computer-readable memory accessible to the crypto neuromorphic core but not accessible to the central processing unit and the network interface; add first data to a blockchain using the private key via the network interface; and read second data from the blockchain via the network interface. a central processing unit coupled to a system bus; a network interface configured to interface with an external device; and a crypto neuromorphic core coupled to the system bus, the crypto neuromorphic core comprising a processor, an internal bus, and a non-transitory computer-readable memory, wherein the crypto neuromorphic core is configured to: store a private key in the non-transitory computer-readable memory accessible to the crypto neuromorphic core but not accessible to the central processing unit and the network interface; add first data to a blockchain using the private key via the network interface; and read second data from the blockchain via the network interface. store a private key in the non-transitory computer-readable memory accessible to the crypto neuromorphic core but not accessible to the central processing unit and the network interface; add first data to a blockchain using the private key via the network interface; and read second data from the blockchain via the network interface.
A thrust vector control actuator comprising: a drive motor assembly , the drive motor assembly comprising an electric motor; a housing ; a ram located within the housing, the ram being operably connected to the drive motor assembly and configured to linearly translate relative to the housing when the drive motor assembly is activated; a first plate housed within the ram; a second plate housed within the ram; a dividing wall housed within the ram, the dividing wall being located between the first plate and the second plate, wherein the dividing wall defines a first chamber within the ram comprising the first plate and a second chamber within the ram comprising the second plate; an output rod housed within the ram, the output rod having a first end and a second end , wherein the second end is configured to operably connect to an output link , the output rod being configured to translate with the ram ; and a load relieving mechanism located within the ram, the load relieving mechanism configured to operatively connect the ram and the output rod, wherein the load relieving mechanism is configured to absorb at least one transient load on the output rod, characterised in that it further comprises: a ball screw assembly operably connected to the drive motor assembly, the ram being operably connected to the ball screw assembly; and a damping fluid located within the second chamber , wherein the second plate has at least one aperture configured to permit the damping fluid to flow through the at least one aperture. a drive motor assembly , the drive motor assembly comprising an electric motor; a housing ; a ram located within the housing, the ram being operably connected to the drive motor assembly and configured to linearly translate relative to the housing when the drive motor assembly is activated; a first plate housed within the ram; a second plate housed within the ram; a dividing wall housed within the ram, the dividing wall being located between the first plate and the second plate, wherein the dividing wall defines a first chamber within the ram comprising the first plate and a second chamber within the ram comprising the second plate; an output rod housed within the ram, the output rod having a first end and a second end , wherein the second end is configured to operably connect to an output link , the output rod being configured to translate with the ram ; and a load relieving mechanism located within the ram, the load relieving mechanism configured to operatively connect the ram and the output rod, wherein the load relieving mechanism is configured to absorb at least one transient load on the output rod, characterised in that it further comprises: a ball screw assembly operably connected to the drive motor assembly, the ram being operably connected to the ball screw assembly; and a damping fluid located within the second chamber , wherein the second plate has at least one aperture configured to permit the damping fluid to flow through the at least one aperture.
A method to output a pose of a textureless object, the method comprising: obtaining, by a processing device, a single image of the textureless object, wherein the single image indicates the pose of the textureless object; generating, by the processing device, a three dimensional model of the textureless object from a plurality of viewpoints and a plurality of scales captured at each one of the plurality of viewpoints, the plurality of viewpoints and the plurality of scales obtained from image data of the textureless object; matching, by the processing device, the single image with a plurality of discretized renders of the three dimensional model via a multi-level illumination invariant tree structure to obtain an alignment of the single image with the discretized render, the multi-level illumination invariant tree structure being a tree structure having a plurality of levels, each of the plurality of levels representing patches extracted from each of the plurality of discretized renders; and outputting, by the processing device, the pose of the textureless object based on the alignment. obtaining, by a processing device, a single image of the textureless object, wherein the single image indicates the pose of the textureless object; generating, by the processing device, a three dimensional model of the textureless object from a plurality of viewpoints and a plurality of scales captured at each one of the plurality of viewpoints, the plurality of viewpoints and the plurality of scales obtained from image data of the textureless object; matching, by the processing device, the single image with a plurality of discretized renders of the three dimensional model via a multi-level illumination invariant tree structure to obtain an alignment of the single image with the discretized render, the multi-level illumination invariant tree structure being a tree structure having a plurality of levels, each of the plurality of levels representing patches extracted from each of the plurality of discretized renders; and outputting, by the processing device, the pose of the textureless object based on the alignment.
Saddle having a saddle tree with at least one fixed girth strap on each of opposite sides of the saddle, with a chamber opening with saddle panels mounted therein, characterized in that an additional strap is arranged between the saddle tree and the saddle panels , the first end of which is connectable to one of the girth straps and the opposite second end of which is connectable to the opposite girth strap or beyond the saddle panels to the saddle tree .
Timepiece movement including a carillon striking mechanism , arranged to strike at least the hours and the quarter-hours, with, for each one-hour period, a different melody for each quarter-hour and for the full hour, said movement including drive means arranged to drive at least a quarter-snail , and said striking mechanism including: - an hour-snail , which is carried by an hour-star wheel held by an hour-jumper and positioned every hour by a quarter-pin integral with said quarter-snail , - a quarter-rack drive pinion driven by a strike train, and arranged to drive a pivoting quarter-rack , whose pivoting travel is limited by a quarter-feeler integral with said quarter-rack and which is arranged to come to rest on said quarter-snail , - a pivoting minute-rack , whose pivoting travel is limited by a minute-feeler which is integral with said minute-rack and arranged to come to rest on a minute-snail driven by said drive means of said movement , - said quarter-rack comprising a drive means arranged for driving the drive teeth of said minute-rack , - a minute surprise-piece coaxial to and superposed on said minute-snail , integral in rotation with said quarter-snail , and at least partially free to pivot with respect to said minute-snail , cooperating with a minute surprise-piece jumper and arranged to extend the zero minute step comprised in said minute-snail , immediately after the change of quarter-hour and during the first minute, characterized in that said striking mechanism includes a quarter surprise-piece coaxial to and superposed on said quarter-snail , and at least partially free to pivot in a limited angular travel with respect to said quarter-snail , arranged to ensure the sequential playing of the melodies of the four quarter-hours on the full hour, in the first minute of the new hour, and further includes, in the plane of said quarter surprise-piece , a quarter surprise-piece jumper , arranged to drive and/or to lock said quarter surprise-piece . - an hour-snail , which is carried by an hour-star wheel held by an hour-jumper and positioned every hour by a quarter-pin integral with said quarter-snail , - a quarter-rack drive pinion driven by a strike train, and arranged to drive a pivoting quarter-rack , whose pivoting travel is limited by a quarter-feeler integral with said quarter-rack and which is arranged to come to rest on said quarter-snail , - a pivoting minute-rack , whose pivoting travel is limited by a minute-feeler which is integral with said minute-rack and arranged to come to rest on a minute-snail driven by said drive means of said movement , - said quarter-rack comprising a drive means arranged for driving the drive teeth of said minute-rack , - a minute surprise-piece coaxial to and superposed on said minute-snail , integral in rotation with said quarter-snail , and at least partially free to pivot with respect to said minute-snail , cooperating with a minute surprise-piece jumper and arranged to extend the zero minute step comprised in said minute-snail , immediately after the change of quarter-hour and during the first minute,
A method for controlling carrier aggregation in a radio network on the basis of a group of cells which can be aggregated, the method comprising establishing (S11), by a network control node, carrier aggregation group information comprising the group of cells which can be aggregated; setting, by the network control node, access control policy for the group of cells in the radio network which can be aggregated (S21), wherein the access control policy is to indicate to an eNB, in case of insufficient resources in the group of cells, - access of a user equipment to the group of cells is denied, or - access of the user equipment to the group of cells is admitted and resources for existing services the group of cells are reduced, and transmitting (S31), by the network control node, the carrier aggregation group information and the access control policy to the eNB. - access of a user equipment to the group of cells is denied, or - access of the user equipment to the group of cells is admitted and resources for existing services the group of cells are reduced, and
Bearing arrangement with a first bearing component , comprising a bearing pin and a coupling pin , and a second bearing component , the bearing components being mounted on a wall to be rotatable about a common axis (D) of rotation, wherein - the bearing pin extends along the axis (D) of rotation and the coupling pin extends eccentrically with respect to the axis (D) of rotation, - the bearing pin is received in a bearing opening of the wall , - the coupling pin is received in a guide slot of the wall and projects out of the guide slot , - the second bearing component has a first opening , in which the bearing pin is received, and a second opening , which is arranged eccentrically with respect to the first opening and in which the coupling pin is received, - the bearing pin is connected with the second bearing component by way of detent means and - the second bearing component is supported on the coupling pin . - the bearing pin extends along the axis (D) of rotation and the coupling pin extends eccentrically with respect to the axis (D) of rotation, - the bearing pin is received in a bearing opening of the wall , - the coupling pin is received in a guide slot of the wall and projects out of the guide slot , - the second bearing component has a first opening , in which the bearing pin is received, and a second opening , which is arranged eccentrically with respect to the first opening and in which the coupling pin is received, - the bearing pin is connected with the second bearing component by way of detent means and - the second bearing component is supported on the coupling pin .
A cable comprising at least one elongate conductive element surrounded by at least one insulating layer obtained from a polymer composition comprising a polymer material and a cocktail of fillers, characterized in that the cocktail of fillers comprises: - a first silicate; - a second silicate, the second silicate differing from the first silicate; - a third silicate, the third silicate differing from the first silicate and second silicate; and - an alkaline-earth metal oxide; and in that the cocktail of fillers comprises from 20 to 40 weight % of said alkaline-earth metal oxide relative to the total weight of the cocktail of fillers in the polymer composition. - a first silicate; - a second silicate, the second silicate differing from the first silicate; - a third silicate, the third silicate differing from the first silicate and second silicate; and - an alkaline-earth metal oxide; and
A method of manufacturing a Magnus rotor having at least one rotor body which has a longitudinal axis, comprising the following method steps: - Providing an internal model for the at least one rotor body , - Bearing of the inner model for coating with a fibre composite material , - Wrapping the beared inner model with a fibre material and supplying a plastic material for producing the fibre composite material , and - Removal of the inner model , whereby - a greater winding thickness is provided in a region of a hub of the rotor body in order to absorb the bearing forces of the Magnus rotor , and - at least one flange connection area is wound on the rotor body , which is intended to hold an end disc for the Magnus rotor . - Providing an internal model for the at least one rotor body , - Bearing of the inner model for coating with a fibre composite material , - Wrapping the beared inner model with a fibre material and supplying a plastic material for producing the fibre composite material , and - Removal of the inner model , whereby - a greater winding thickness is provided in a region of a hub of the rotor body in order to absorb the bearing forces of the Magnus rotor , and - at least one flange connection area is wound on the rotor body , which is intended to hold an end disc for the Magnus rotor .
Chromatography media comprising: porous silica particles having a median pore diameter d 50 of from 60 nm to 160 nm (600 Å to 1600 Å), as measured by mercury porosimetry; a pore size distribution relative span of at least about 0.99, wherein the span is measured by subtracting the d 10 pore diameter from the d 90 pore diameter as measured by mercury porosimetry and the relative span is calculated as the ratio of (d 90 -d 10 )/d 50 ); and a functionalized surface comprising an average of from greater than 1 to 3 linker molecules per square nanometer of surface area of said porous silica particles, determined as described in the description under the heading "General Process Description for Bonding Silica", wherein each of said linker molecules prior to a reaction with a protein comprises an aldehyde group prepared by reacting (i) hydroxyl groups on said porous silica particles and (ii) a silane containing at least one epoxy group to form at least one diol and thereafter converting said at least one diol to at least one aldehyde group; and wherein said functionalized surface comprises a protein A covalently linked to surfaces of said porous silica particles via at least some of said linker molecules. porous silica particles having a median pore diameter d 50 of from 60 nm to 160 nm (600 Å to 1600 Å), as measured by mercury porosimetry; a pore size distribution relative span of at least about 0.99, wherein the span is measured by subtracting the d 10 pore diameter from the d 90 pore diameter as measured by mercury porosimetry and the relative span is calculated as the ratio of (d 90 -d 10 )/d 50 ); and a functionalized surface comprising an average of from greater than 1 to 3 linker molecules per square nanometer of surface area of said porous silica particles, determined as described in the description under the heading "General Process Description for Bonding Silica", wherein each of said linker molecules prior to a reaction with a protein comprises an aldehyde group prepared by reacting (i) hydroxyl groups on said porous silica particles and (ii) a silane containing at least one epoxy group to form at least one diol and thereafter converting said at least one diol to at least one aldehyde group; and wherein said functionalized surface comprises a protein A covalently linked to surfaces of said porous silica particles via at least some of said linker molecules.
An air conditioning apparatus that performs air conditioning by circulating a refrigerant, the air conditioning apparatus including a first compressor having a gas engine as a driving source and a second compressor having an electric motor as a driving source, the first compressor and the second compressor being connected in parallel, the air conditioning further including a bypass pipe , a refrigerant liquid pipe , an exhaust heat recovering decompression device and an exhaust heat recovering heat exchanger wherein the bypass pipe connects a suction pipe of the second compressor and the refrigerant liquid pipe , wherein the exhaust heat recovering decompression device and the exhaust heat recovering heat exchanger are provided in the bypass pipe sequentially from the refrigerant liquid pipe , the air conditioning apparatus further including an oil separator upstream of a junction section of discharge pipes of the first compressor and the second compressor , an accumulator and an oil return pipe in a bottom portion of the oil separator , the air conditioning apparatus characterised by further including a first oil return pipe , a first oil return adjusting valve , a second oil return pipe , a second oil return adjusting valve and a low pressure gas pipe , wherein the oil return pipe is connected to the first oil return pipe and the second oil return pipe , the first oil return pipe is connected to the low pressure gas pipe downstream of the accumulator via the first oil return adjusting valve , the second oil return pipe is connected to the bypass pipe downstream of the exhaust heat recovering heat exchanger via the second oil return adjusting valve .