mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, comprising: performing polar encoding to obtain a mother code having a length of N; performing rate matching on the mother code to obtain M encoded bits and a bit sequence of remaining bits having a length of (N-M) representing punctured bits, wherein N is m raised to the power of an integer, m is a positive integer greater than 1, M is a positive integer, and N >M; transmitting the M encoded bits; generating a to-be-sent bit sequence, wherein the to-be-sent bit sequence comprises one or more bits in the bit sequence having the length of (N - M);, and sending the generated to-be-sent bit sequence in response to receiving a negative acknowledgement, wherein the method further comprises: selecting, when m^ceil (log m M) - M <= P t, the length N of the mother code as min (m^(ceil (logmM) + 1), Nmax), wherein P t is a threshold of a quantity of punctured bits, and Nmax is a maximum length of the mother code; or selecting the length N of the mother code based on a threshold of a quantity of punctured bits P t to meet the following conditions: N/2 - M ≤ P t, and N - M ≥ Pt. performing polar encoding to obtain a mother code having a length of N; performing rate matching on the mother code to obtain M encoded bits and a bit sequence of remaining bits having a length of (N-M) representing punctured bits, wherein N is m raised to the power of an integer, m is a positive integer greater than 1, M is a positive integer, and N >M; transmitting the M encoded bits; generating a to-be-sent bit sequence, wherein the to-be-sent bit sequence comprises one or more bits in the bit sequence having the length of (N - M);, and sending the generated to-be-sent bit sequence in response to receiving a negative acknowledgement, wherein the method further comprises: selecting, when m^ceil (log m M) - M <= P t, the length N of the mother code as min (m^(ceil (logmM) + 1), Nmax), wherein P t is a threshold of a quantity of punctured bits, and Nmax is a maximum length of the mother code; or selecting the length N of the mother code based on a threshold of a quantity of punctured bits P t to meet the following conditions: N/2 - M ≤ P t, and N - M ≥ Pt. selecting, when m^ceil (log m M) - M <= P t, the length N of the mother code as min (m^(ceil (logmM) + 1), Nmax), wherein P t is a threshold of a quantity of punctured bits, and Nmax is a maximum length of the mother code; or selecting the length N of the mother code based on a threshold of a quantity of punctured bits P t to meet the following conditions: N/2 - M ≤ P t, and N - M ≥ Pt.
Tarpaulin superstructure of a commercial vehicle having a roof and a side wall, wherein the side wall has a side curtain and at least one stanchion connected to the side curtain, wherein the stanchion has a stanchion body and a stanchion sliding unit that can be extended upwards with respect to the stanchion body in order to lengthen the stanchion, wherein a strut extends longitudinally in relation to the tarpaulin superstructure in the connecting region between the roof and the side wall, wherein the stanchion body is held on the strut by the stanchion sliding unit and wherein the stanchion has a tarpaulin holder for fixing the side curtain in a position above the stanchion body, characterised in that the tarpaulin holder is provided so as to be immovable relative to the stanchion body during lengthening of the stanchion.
A composition for use in a method of treating and/or preventing a lung disease or disorder, the composition comprising an enriched population of isolated c-kit positive lung stem cells from an adult human lung tissue sample wherein the c-kit positive lung stem cells are negative for the markers CD34, CD29, CD44, CD45, CD90. CD133, CD105, TTF1, Est1, CD6, CD49d, CD49e, tryptase, p63, pan-cytokeratin, cytokeratin 5, CC10, aquaporin-5, SPC, vWF1, GATA 6, alpha-SMA, CD2, CD3, CD8, CD14, CD16, CD19, CD20, CD24, CD66b, or glycophorin A.
A diaphragm pressure expansion vessel which is intended to be connected to a line system, the vessel having two vessel parts (2, 3), which are connected to one another in a pressure-tight and fluid-tight manner in a peripheral connecting region, wherein the closed vessel interior which is formed by the two vessel parts (2, 3) is separated into a water chamber and a gas chamber by a diaphragm, wherein the water chamber can be connected to the line system via a connection piece, wherein the diaphragm is formed from an at least single-layered plastic and is designed in the form of a bubble, characterized in, that the gas chamber is formed by the diaphragm interior and by the vessel interior between that side of the diaphragm which is averted from the water chamber and the adjoining vessel part, wherein that side of the diaphragm which is averted from the water chamber is provided with perforations.
A fuel cell stack in which a plurality of fuel cells are stacked via separators, the fuel cell including a solid electrolyte plate interposed between an anode electrode and a cathode electrode, wherein: the separator is constituted of an uneven member that includes a first abutting portion, a second abutting portion, and a connecting portion, the first abutting portion abuts on one fuel cell of the two adjacent fuel cells, the second abutting portion abuts on the other fuel cell, and the connecting portion connects the first abutting portion to the second abutting portion, characterized in that: at least one abutting portion of the first abutting portion or the second abutting portion has a central portion formed to have a thickness greater than a thickness of an end portion of the connecting portion coupled to the at least one abutting portion, and the at least one abutting portion has a section modulus greater than a section modulus of the connecting portion.
A method for lubricating an angular contact ball bearing comprising the steps of: injecting oil into an annulus channel (40;140;240); and passing oil from said annulus channel (40;140;240) into ball pockets (30;130;230) through holes (50;150;250) connecting said annulus channel (40;140;240) to said ball pockets (30;130;230), thereby lubricating said ball pockets (30;130;230); wherein said annulus channel comprises: a first wall approximately parallel a cage land surface (122;222); a second wall approximately parallel to a ball pocket wall; and a third wall angled relative to said cage land surface (122;222) and angled relative to said ball pocket wall, said third wall being axially closer to said ball pocket wall than said second wall, relative to said axis defined by said bearing cage, wherein each of said holes (50;150;250) is approximately parallel to said cage land surface (122;222). injecting oil into an annulus channel (40;140;240); and passing oil from said annulus channel (40;140;240) into ball pockets (30;130;230) through holes (50;150;250) connecting said annulus channel (40;140;240) to said ball pockets (30;130;230), thereby lubricating said ball pockets (30;130;230); wherein said annulus channel comprises: a first wall approximately parallel a cage land surface (122;222); a second wall approximately parallel to a ball pocket wall; and a third wall angled relative to said cage land surface (122;222) and angled relative to said ball pocket wall, said third wall being axially closer to said ball pocket wall than said second wall, relative to said axis defined by said bearing cage, wherein each of said holes (50;150;250) is approximately parallel to said cage land surface (122;222). a first wall approximately parallel a cage land surface (122;222); a second wall approximately parallel to a ball pocket wall; and a third wall angled relative to said cage land surface (122;222) and angled relative to said ball pocket wall, said third wall being axially closer to said ball pocket wall than said second wall, relative to said axis defined by said bearing cage, wherein each of said holes (50;150;250) is approximately parallel to said cage land surface (122;222).
A method for selecting a mobile edge computing, MEC, node, performed by an edge cloud gateway, the edge cloud gateway being configured in a system for selecting an MEC node, the system comprising at least a user plane function, UPF, and the edge cloud gateway, the method comprising: receiving, by the edge cloud gateway, a first HyperText Transfer Protocol, HTTP, service request forwarded by the UPF, a destination address of the first HTTP service request being an edge-application virtual Internet Protocol address, VIP; determining a corresponding MEC processing server according to the first HTTP service request and a preset offloading policy; and offloading the first HTTP service request to the corresponding MEC processing server, wherein the system further comprises a global server load balance, GSLB, and before the receiving, by the edge cloud gateway, the first HTTP service request forwarded by the UPF, the method further comprises: receiving a second HTTP service request forwarded by the UPF, a destination address of the second HTTP service request being a global edge gateway IP address, the global edge gateway IP address being returned to a terminal by the GSLB upon receiving a domain name system, DNS, request transmitted by the terminal, the global edge gateway IP address being an IP address that identifies service acceleration; obtaining the edge-application VIP from the GSLB based on the second HTTP service request; and transmitting a redirection response to the terminal, a redirection address in the redirection response being the edge-application VIP, whereby the terminal transmits the first HTTP service request based on the redirection response. receiving, by the edge cloud gateway, a first HyperText Transfer Protocol, HTTP, service request forwarded by the UPF, a destination address of the first HTTP service request being an edge-application virtual Internet Protocol address, VIP; determining a corresponding MEC processing server according to the first HTTP service request and a preset offloading policy; and offloading the first HTTP service request to the corresponding MEC processing server, wherein the system further comprises a global server load balance, GSLB, and before the receiving, by the edge cloud gateway, the first HTTP service request receiving a second HTTP service request forwarded by the UPF, a destination address of the second HTTP service request being a global edge gateway IP address, the global edge gateway IP address being returned to a terminal by the GSLB upon receiving a domain name system, DNS, request transmitted by the terminal, the global edge gateway IP address being an IP address that identifies service acceleration; obtaining the edge-application VIP from the GSLB based on the second HTTP service request; and transmitting a redirection response to the terminal, a redirection address in the redirection response being the edge-application VIP, whereby the terminal transmits the first HTTP service request based on the redirection response.
A communication control device (100, 200) comprising: a communication control unit (153, 253, 343) configured to control radio communication in a small cell partially or entirely overlapping with a macro cell; and an acquisition unit (151, 251, 341) configured to acquire first synchronization relationship information indicating which frequency bands are mutually synchronized among a plurality of frequency bands used for the small cell, wherein the first synchronization relationship information is supplied in the small cell by the communication control unit (153, 253, 343) and is not supplied in the macro cell by a base station (820, 850) of the macro cell. a communication control unit (153, 253, 343) configured to control radio communication in a small cell partially or entirely overlapping with a macro cell; and an acquisition unit (151, 251, 341) configured to acquire first synchronization relationship information indicating which frequency bands are mutually synchronized among a plurality of frequency bands used for the small cell, wherein the first synchronization relationship information is supplied in the small cell by the communication control unit (153, 253, 343) and is not supplied in the macro cell by a base station (820, 850) of the macro cell.
A recombinant luciferase having luciferase activity and an amino acid sequence which differs from wild-type luciferase from Photinus pyralis, Luciola mingrelica, Luciola cruciata, Luciola lateralis, Pyrophorus plagiophthalamus, Lampyris noctiluca, or Photuris pennsylvanica, in that in the sequence of the recombinant luciferase, the amino acid residue corresponding to residue 105 in Photinus pyralis wild-type luciferase, to residue 106 in Luciola mingrelica wild-type luciferase, to residue 107 in Luciola cruciata or Luciola lateralis wild-type luciferases, or to residue 108 in Luciola lateralis wild-type luciferase is mutated as compared to the corresponding amino acid which appears in the corresponding wild-type luciferase sequence, such that the recombinant luciferase has increased thermostability as compared to the corresponding wild-type luciferase.
A method, comprising: successively transferring a series of images from an imaging surface to an intermediate transfer member, ITM, then from the ITM to positions on a web substrate, wherein a first image of the series of images is transferred to the ITM in a first position; intermittently adjusting a position at which particular images are transferred to the ITM by a first defined distance laterally across the ITM and by a second defined distance longitudinally with respect to the ITM; adjusting a position at which the particular images are transferred to the web substrate by approximately the first defined distance laterally relative to the ITM and by approximately the second defined distance longitudinally relative to the ITM; and the method being characterised in that, after a first defined number of intermittent position adjustments, a direction in which the position is adjusted is changed; wherein as a result of the intermittent position adjustments, the particular images are transferred to the ITM at positions along a closed path, such that an image to be transferred to the ITM after a second defined number of intermittent position adjustments is transferred to the ITM in the first position. successively transferring a series of images from an imaging surface to an intermediate transfer member, ITM, then from the ITM to positions on a web substrate, wherein a first image of the series of images is transferred to the ITM in a first position; intermittently adjusting a position at which particular images are transferred to the ITM by a first defined distance laterally across the ITM and by a second defined distance longitudinally with respect to the ITM; adjusting a position at which the particular images are transferred to the web substrate by approximately the first defined distance laterally relative to the ITM and by approximately the second defined distance longitudinally relative to the ITM; and the method being characterised in that, after a first defined number of intermittent position adjustments, a direction in which the position is adjusted is changed; wherein as a result of the intermittent position adjustments, the particular images are transferred to the ITM at positions along a closed path, such that an image to be transferred to the ITM after a second defined number of intermittent position adjustments is transferred to the ITM in the first position.
System for sealing and connecting the mouth area of an inlet conduit entering an accessible sewer pipe, comprising - a hat profile with a cylindrical hat shaft intended for insertion into the inlet conduit and a brim projecting radially from the end of the hat shaft leading out of the inlet conduit, which brim is intended to rest on the inside of the sewer pipe; - a temporarily expandable shut-off plug intended for insertion into the inlet conduit, by means of which the inside of the hat shaft can be pressed against the inlet conduit; - an annular flexible pressure plate for application to the brim; and - pressure means for pressing the pressure plate against the brim, wherein the pressing means comprise a substantially U-shaped pressing bracket with two leg ends (60, 61) and a connecting leg, which engages over the shut-off plug in the region of the end not pointing into the inlet conduit and with its leg ends (60, 61) can be attached detachably on diametrically opposite regions of the pressure plate and a tensioning device engaging on the connecting leg is provided, by means of which a pressing force can be generated by the leg ends (60, 61) onto the pressure plate in the direction of the brim. - a hat profile with a cylindrical hat shaft intended for insertion into the inlet conduit and a brim projecting radially from the end of the hat shaft leading out of the inlet conduit, which brim is intended to rest on the inside of the sewer pipe; - a temporarily expandable shut-off plug intended for insertion into the inlet conduit, by means of which the inside of the hat shaft can be pressed against the inlet conduit; - an annular flexible pressure plate for application to the brim; and - pressure means for pressing the pressure plate against the brim,
Slip ring arrangement with a brush block and a sliding track comprising at least a first brush and a second brush of an electrically conductive material which are both fastened in a holder (20, 21) in different levels, wherein the first brush is fixed in another level and thus at a different distance to a rotating axis of the sliding track than the second brush, and that the first brush is electrically connected to the second brush, characterized in that the holder comprises a first printed circuit board, to which the second brush is attached, as well as a second printed circuit board parallel to the first printed circuit board to which the first brush is attached, wherein the second brush is exclusively connected and contacted to the first printed circuit board and the first brush is contacted to the first printed circuit board and the second printed circuit board.
A method for manufacturing a pipe conduit arrangement comprising two pipe conduit units which have a pipe conduit middle axis, wherein the pipe conduit unit comprises a pipe conduit which has a pipe conduit outer surface, a pipe conduit end-face and a pipe conduit outer diameter, and a pipe stub which has a pipe stub inner diameter and which comprises a flange section and a pipe section, said flange section comprising a flange section end-face and said pipe section comprising a pipe section inner surface, a seal which is arranged axially between the flange section end-faces of the pipe stubs, and a clamping device which axially clamps the flange sections of the pipe stubs of the two pipe conduit units to one another, characterised in that the pipe stub is stuck onto the pipe conduit at least up to a flush state of the flange section end-face and the pipe conduit end-face, the pipe conduit is fixed in the pipe stub in a press fit which is produced by the radial widening of the pipe conduit and the arisen pipe conduit units are axially clamped by way of clamping the flange sections of the pipe stubs into the pipe conduit arrangement, characterised in that the seal comprises a seal insert and after the clamping of the pipe conduit units into the pipe conduit arrangement, the seal forms defined transition between the two pipe conduit units which are clamped to one another, wherein the transition which is defined by the pressing forces which are set by the seal insert is formed such that the arching with respect to a pipe conduit inner diameter forms an obtuse angle (α).
Pneumatic vehicle tyre of a radial type of construction with a multi-ply breaker belt, which has at least two belt plies comprising steel reinforcing elements embedded in rubber, wherein one of these belt plies has monofilaments with a substantially elliptical cross section of a first diameter D and a second diameter d, wherein the second diameter d is < the first diameter D and wherein the first diameter D lies in a range between 0.40 mm and 0.60 mm, characterized in that the second diameter d is ≤ 0.20 mm.
A load control device operable to control the amount of power delivered to a load from an AC power source, the load control device being characterised in that it comprises: a printed circuit board comprising a first layer comprising a first trace and a second layer comprising a second trace, the first and second traces being positioned parallel to one another; a communication circuit electrically coupled to the first trace; and an antenna electrically coupled to the second trace; wherein the first trace is oriented to form a capacitive coupling with respect to the second trace, such that the antenna is capacitively coupled to the communication circuit. a printed circuit board comprising a first layer comprising a first trace and a second layer comprising a second trace, the first and second traces being positioned parallel to one another; a communication circuit electrically coupled to the first trace; and an antenna electrically coupled to the second trace; wherein the first trace is oriented to form a capacitive coupling with respect to the second trace, such that the antenna is capacitively coupled to the communication circuit.
Method of customizing a security component comprising: • a step of inserting a first secret K0 into said security component, said step being implemented in a secure domain under the responsibility of the manufacturer of the security component; • a step of generating an application secret K and a step of generating a customization cryptogram K0 obtained by encrypting the application secret K with the first secret K0, said steps (21, 22) being implemented in a secure application domain under the responsibility of the holder of the security component; • a step of customizing the security component by inserting into said security component the customization cryptogram K0, said step of customizing being implemented in an application domain. characterised in that it additionally comprises a step where the first secret K0 is inserted into an encryption component, said step being implemented in the secure domain under the responsibility of the manufacturer of the security component, said encryption component being used to encrypt the application secret K by the first secret K0 to generate the customization cryptogram K0. • a step of inserting a first secret K0 into said security component, said step being implemented in a secure domain under the responsibility of the manufacturer of the security component; • a step of generating an application secret K and a step of generating a customization cryptogram K0 obtained by encrypting the application secret K with the first secret K0, said steps (21, 22) being implemented in a secure application domain under the responsibility of the holder of the security component; • a step of customizing the security component by inserting into said security component the customization cryptogram K0, said step of customizing being implemented in an application domain.
Timepiece mechanism for displaying information comprising a first cam set in motion by a pivot means, first elastic means keeping a first follower against the first cam, a first indicator drive wheel set in motion by the first follower, characterised in that it comprises a second cam set in motion by the pivot means, second elastic means keeping a second follower against the second cam and a second indicator drive wheel set in motion by the second follower, the first and second followers (36A, 36B) being guided in translation, the first indicator drive wheel cooperating with a lateral face of the first follower substantially parallel to its direction of displacement so as to permit the first cam to cause pivoting of the first indicator drive wheel by means of the first follower, the second indicator drive wheel cooperating with a lateral face of the second follower substantially parallel to its direction of displacement so as to permit the second cam to cause pivoting of the second indicator drive wheel by means of the second follower.