mhurhangee/patent-ind-claim-en huggingface dataset:
A winding type electrode assembly, comprising: a positive electrode plate comprising a first positive winding end portion , a second positive winding end portion and a positive winding middle section , wherein the first positive winding end portion and the second positive winding end portion are connected to two ends of the positive winding middle section respectively, the first positive winding end portion is a positive winding starting section, and the second positive winding end portion is a positive winding ending section; a negative electrode plate comprising a first portion and a second portion connected to each other, wherein the first portion is arranged opposite to the first positive winding end portion , and the second portion is arranged opposite to the positive winding middle section ; and in a winding axial direction (B) of the winding type electrode assembly, a negative active material layer of the negative electrode plate exceeds a positive active material layer of the positive electrode plate , a maximum width of a negative active material layer of the first portion is H1, a minimum width of a positive active material layer of the first positive winding end portion is L1, a maximum width of a negative active material layer of the second portion is H2, a minimum width of a positive active material layer of the positive winding middle section is L2, and H1-L1 > H2-L2. a positive electrode plate comprising a first positive winding end portion , a second positive winding end portion and a positive winding middle section , wherein the first positive winding end portion and the second positive winding end portion are connected to two ends of the positive winding middle section respectively, the first positive winding end portion is a positive winding starting section, and the second positive winding end portion is a positive winding ending section; a negative electrode plate comprising a first portion and a second portion connected to each other, wherein the first portion is arranged opposite to the first positive winding end portion , and the second portion is arranged opposite to the positive winding middle section ; and in a winding axial direction (B) of the winding type electrode assembly, a negative active material layer of the negative electrode plate exceeds a positive active material layer of the positive electrode plate , a maximum width of a negative active material layer of the first portion is H1, a minimum width of a positive active material layer of the first positive winding end portion is L1, a maximum width of a negative active material layer of the second portion is H2, a minimum width of a positive active material layer of the positive winding middle section is L2, and H1-L1 > H2-L2.
An electronic cigarette vaporiser system including: (a) a user-replaceable e-liquid cartridge ; (b) an e-liquid fluid transfer system , arranged to withdraw e-liquid from the cartridge and to pump that e-liquid to an atomizer ; and in which the cartridge includes a security or authenticator chip that is read by the system to verify if the cartridge is authentic and, if the verification is good, then the system permits e-liquid to be withdrawn from the e-liquid cartridge by the fluid transfer system . (a) a user-replaceable e-liquid cartridge ; (b) an e-liquid fluid transfer system , arranged to withdraw e-liquid from the cartridge and to pump that e-liquid to an atomizer ; and in which the cartridge includes a security or authenticator chip that is read by the system to verify if the cartridge is authentic and, if the verification is good, then the system permits e-liquid to be withdrawn from the e-liquid cartridge by the fluid transfer system .
Undervoltage release circuit comprising a solenoid , a spring, a voltage determining device and a switching element , the voltage determining device comprising means for measuring the control-voltage and means for generating a signal (K) according to the control voltage measured, the solenoid acting against the spring and being connected to a trip-latch which trips a circuit-breaker as soon as a control voltage drops under a voltage level, characterized in that the switching element is controlled by a command signal, the switching element being connected in series with the solenoid , the signal (K) according to the control voltage measured constituting the command signal (K) so that the switching element is closed when the control voltage measured is equal or higher than the voltage level and opened as soon as the control voltage is less than the voltage level.
An information processing method in a communications system, comprising: obtaining , by a communication device based on a length B of an output sequence and a maximum code block length Z, C code blocks after decoding the C code blocks with a low-density parity-check, LDPC, base matrix, wherein B, Z, and C are integers greater than 0, and B>Z; and obtaining , by the communication device , the output sequence based on the C code blocks, wherein each of the C code blocks comprises an output bit segment in the output sequence, a cyclic redundancy check, CRC, bit segment whose length is L and a filler bit segment, L is an integer greater than 0 and less than Z, wherein B, Z, C, and L meet C = B / Z − L , where ⋅ represents rounding to an upper integer; wherein at least one of the C code blocks comprises a segment of length K 3 , wherein the segment of length K 3 comprises an output bit segment and a CRC bit segment, and K 3 meets K 3 = B + C ⋅ L / C ; wherein, in the code block comprising the segment of length K 3 , the filler bit segment comprises F 3 filler bits, where F 3 is an integer greater than 0 and F 3 = I 3 - K 3 , wherein I 3 is a product of a lifting factor z and a value X, wherein the value X is a quantity of columns corresponding to information bits in the LDPC base matrix for decoding each of the C code blocks, and wherein the lifting factor z is a minimum value in lifting factors that makes I 3 meet I 3 ≥ K 3 , or the lifting factor z is a minimum value in a lifting factor being greater than or equal to an integer A and the integer A satisfies A = K 3 / X . obtaining , by a communication device based on a length B of an output sequence and a maximum code block length Z, C code blocks after decoding the C code blocks with a low-density parity-check, LDPC, base matrix, wherein B, Z, and C are integers greater than 0, and B>Z; and obtaining , by the communication device , the output sequence based on the C code blocks, wherein each of the C code blocks comprises an output bit segment in the output sequence, a cyclic redundancy check, CRC, bit segment whose length is L and a filler bit segment, L is an integer greater than 0 and less than Z, wherein B, Z, C, and L meet C = B / Z − L , where ⋅ represents rounding to an upper integer; wherein at least one of the C code blocks comprises a segment of length K 3 , wherein the segment of length K 3 comprises an output bit segment and a CRC bit segment, and K 3 meets K 3 = B + C ⋅ L / C ; wherein, in the code block comprising the segment of length K 3 , the filler bit segment comprises F 3 filler bits, where F 3 is an integer greater than 0 and F 3 = I 3 - K 3 , wherein I 3 is a product of a lifting factor z and a value X, wherein the value X is a quantity of columns corresponding to information bits in the LDPC base matrix for decoding each of the C code blocks, and wherein the lifting factor z is a minimum value in lifting factors that makes I 3 meet I 3 ≥ K 3 , or the lifting factor z is a minimum value in a lifting factor being greater than or equal to an integer A and the integer A satisfies A = K 3 / X .
A communications method for rate matching in a communications system applying low-density parity-check, LDPC, comprising: obtaining an input sequence for rate matching, wherein the input sequence is a retransmission sequence corresponding to a transport block, the input sequence comprises M code block groups, a value of M is less than a quantity of code block groups obtained after the transport block is segmented, and the M code block groups comprise C t code blocks; performing rate matching on the C t code blocks to obtain C t rate matching output sequences, wherein a length of each rate matching output sequence satisfies: when j ≤ C t - γ -1 , E = N L ⋅ Q m ⋅ ⌊ G ′ / C t ⌋ , or when j > C t - γ - 1, E = N L ⋅ Q m ⋅ ⌈ G ′ / C t ⌉ ; wherein G' = G / (N L ·Q m ) , γ = G ' mod C t , Q m is a modulation order, N L is a quantity of data flows and in a multiplexing mode, N L is equal to a quantity of actually sent data flows, G is a quantity of available bits used for transmitting the transport block, j corresponds to a code block number; and outputting the C t rate matching output sequences. obtaining an input sequence for rate matching, wherein the input sequence is a retransmission sequence corresponding to a transport block, the input sequence comprises M code block groups, a value of M is less than a quantity of code block groups obtained after the transport block is segmented, and the M code block groups comprise C t code blocks; performing rate matching on the C t code blocks to obtain C t rate matching output sequences, wherein a length of each rate matching output sequence satisfies: when j ≤ C t - γ -1 , E = N L ⋅ Q m ⋅ ⌊ G ′ / C t ⌋ , or when j > C t - γ - 1, E = N L ⋅ Q m ⋅ ⌈ G ′ / C t ⌉ ; wherein G' = G / (N L ·Q m ) , γ = G ' mod C t , Q m is a modulation order, N L is a quantity of data flows and in a multiplexing mode, N L is equal to a quantity of actually sent data flows, G is a quantity of available bits used for transmitting the transport block, j corresponds to a code block number; and outputting the C t rate matching output sequences.
The food pressure cooking appliance including a bowl provided with a bowl handle that forms a local protrusion extending radially from the bowl , a lid independent of the bowl , as well as a bayonet locking system designed to switch from an unlocking configuration to a locking configuration by swivelling of the lid with respect to the bowl according to a predetermined angular stroke (α) from a predetermined pre-locking position of the lid with respect to the bowl , to bring the lid to a predetermined locking position with respect to the bowl , said appliance also comprising a safety element fixed to the lid to move with the latter with respect to the bowl according to said predetermined angular stroke (α), said safety element cooperating in interlocking with the bowl handle when the lid occupies said predetermined locking position, said appliance being characterized in that said safety element comprises a main body fixedly attached to the lid , as well as a lock mounted mobile with respect said the main body between: - a first position in which said lock can engage, when the lid occupies said predetermined locking position, a complementary locking conformation carried by the bowl handle , - and a second position in which the lock is spaced apart enough from said complementary locking conformation to disengage from the latter when the lid occupies said predetermined locking position, the totality of said lock being in radial correspondence with said bowl handle , not only when the lid occupies said predetermined locking position, but also when it occupies said predetermined pre-locking position. - a first position in which said lock can engage, when the lid occupies said predetermined locking position, a complementary locking conformation carried by the bowl handle , - and a second position in which the lock is spaced apart enough from said complementary locking conformation to disengage from the latter when the lid occupies said predetermined locking position,
A method for managing a network comprising network elements that forward data flows in the network , the method comprising: providing a programmatic interface in a network operating system to allow one or more management applications running on top of the network operating system to control the network elements , wherein at least one of the management applications registers with the network operating system to receive notifications of network events; receiving network-wide declarative statements from the management applications to control the network elements and enforce desired policies, the network-wide declarative statements describing policies using high-level names of network hosts that are independent of network topology and remain valid as the network hosts change locations in the network, wherein the network operating system maintains mappings from the high-level names of the network hosts to low-level addresses of the network hosts; and in response to occurrence of a network event: using the mappings of the high-level names to the low-level addresses to automatically modify a forwarding behavior of at least one of the network elements to enforce the desired policies received from the management applications , by modifying flow entries of the network element that define sets of operations to perform on associated data flows; and notifying the at least one management application of the network event. providing a programmatic interface in a network operating system to allow one or more management applications running on top of the network operating system to control the network elements , wherein at least one of the management applications registers with the network operating system to receive notifications of network events; receiving network-wide declarative statements from the management applications to control the network elements and enforce desired policies, the network-wide declarative statements describing policies using high-level names of network hosts that are independent of network topology and remain valid as the network hosts change locations in the network, wherein the network operating system maintains mappings from the high-level names of the network hosts to low-level addresses of the network hosts; and in response to occurrence of a network event: using the mappings of the high-level names to the low-level addresses to automatically modify a forwarding behavior of at least one of the network elements to enforce the desired policies received from the management applications , by modifying flow entries of the network element that define sets of operations to perform on associated data flows; and notifying the at least one management application of the network event. using the mappings of the high-level names to the low-level addresses to automatically modify a forwarding behavior of at least one of the network elements to enforce the desired policies received from the management applications , by modifying flow entries of the network element that define sets of operations to perform on associated data flows; and notifying the at least one management application of the network event.
A method of preparing D-arginine, comprising the steps of: depositing a D-3-bromocamphor-8-sulfonic acid salt of D-arginine by optically resolving DL-arginine using, as an optical resolving agent, D-3-bromocamphor-8-sulfonic acid or a salt of D-3-bromocamphor-8-sulfonic acid; and hydrolyzing the deposited D-3-bromocamphor-8-sulfonic acid salt of D-arginine. depositing a D-3-bromocamphor-8-sulfonic acid salt of D-arginine by optically resolving DL-arginine using, as an optical resolving agent, D-3-bromocamphor-8-sulfonic acid or a salt of D-3-bromocamphor-8-sulfonic acid; and hydrolyzing the deposited D-3-bromocamphor-8-sulfonic acid salt of D-arginine.
An assembly system comprising: a fixture configured to support a structure including a mating structure to receive a malleable adhesive material , a bladder system coupled to the fixture , the bladder system comprising a hollowed frame having sidewalls that support a bladder disposed therein; the hollowed frame including an opening that exposes an outer portion of the bladder and that is configured to guide the exposed outer portion externally from the hollowed frame toward a targeted area of the structure , wherein in response to inflating the bladder , the outer portion extends through the opening and applies a force against the mating structure , wherein the fixture comprises a fixture mating mechanism configured to receive the mating structure to be bonded to a target structure to assemble the structure ; characterized in that in response to inflating the bladder, the outer portion extends through the opening and applies the force against the mating structure so as to displace the malleable adhesive material to define a shape of an adhesive bead fillet . a fixture configured to support a structure including a mating structure to receive a malleable adhesive material , a bladder system coupled to the fixture , the bladder system comprising a hollowed frame having sidewalls that support a bladder disposed therein; the hollowed frame including an opening that exposes an outer portion of the bladder and that is configured to guide the exposed outer portion externally from the hollowed frame toward a targeted area of the structure , wherein in response to inflating the bladder , the outer portion extends through the opening and applies a force against the mating structure , wherein the fixture comprises a fixture mating mechanism configured to receive the mating structure to be bonded to a target structure to assemble the structure ; characterized in that in response to inflating the bladder, the outer portion extends through the opening and applies the force against the mating structure so as to displace the malleable adhesive material to define a shape of an adhesive bead fillet .
Lane-change assistance system for a motor vehicle for the automated performance of lane changes with at least automated transverse guidance, which system is configured - to ascertain, on the basis of information from a navigation system for navigation, that a plurality of lane changes proceeding from the current lane to a target lane different from the current lane are required in order to follow active navigation, performed by means of the navigation system, to a navigation target; - to inform the driver of a need to change lanes, before the automated performance of the plurality of lane changes required, - to ascertain the presence of a triggering operation action by the driver for triggering the multiple lane changes required, wherein only a single operation action is required as triggering operation action to trigger the plurality of lane changes, and - in reaction to ascertaining the presence of the triggering operation action, to perform successively in an automated manner the plurality of lane changes required proceeding from the current lane to the target lane different from the current lane with at least automated transverse guidance. - to ascertain, on the basis of information from a navigation system for navigation, that a plurality of lane changes proceeding from the current lane to a target lane different from the current lane are required in order to follow active navigation, performed by means of the navigation system, to a navigation target; - to inform the driver of a need to change lanes, before the automated performance of the plurality of lane changes required, - to ascertain the presence of a triggering operation action by the driver for triggering the multiple lane changes required, wherein only a single operation action is required as triggering operation action to trigger the plurality of lane changes, and - in reaction to ascertaining the presence of the triggering operation action, to perform successively in an automated manner the plurality of lane changes required proceeding from the current lane to the target lane different from the current lane with at least automated transverse guidance.
Lubricating and cooling system for an internal combustion engine, the combustion engine comprising a piston suitable to reciprocate with a respective cylinder, the system comprising a multitude of oil consumers grouped into a first and a second group, wherein said second group comprises at least one piston nozzle(s) (NZ) arranged in order to refresh said piston, the system comprising - a main oil circuit with a respective main pump (MP), comprising connecting means for being directly driven by said internal combustion engine, wherein said main pump is a controllable variable flow pump arranged to feed oil to said first group of oil consumers (CB-RA, CM, CR); - an auxiliary oil circuit with a respective electrical auxiliary pump (AP) arranged to feed oil to said second group of oil consumers (NZ), characterised by - an interconnecting valve (SW) capable to selectively operatively interconnect said first and second circuits, the system being arranged, during engine brake operation, - to command said interconnecting valve (SW) to operatively interconnect said main and auxiliary circuits, and then - to control said main pump to provide for a relative maximum oil flow, and - to control said auxiliary pump to extract energy from said oil flow provided by said main pump, thereby generating electric energy. - a main oil circuit with a respective main pump (MP), comprising connecting means for being directly driven by said internal combustion engine, wherein said main pump is a controllable variable flow pump arranged to feed oil to said first group of oil consumers (CB-RA, CM, CR); - an auxiliary oil circuit with a respective electrical auxiliary pump (AP) arranged to feed oil to said second group of oil consumers (NZ), characterised by - an interconnecting valve (SW) capable to selectively operatively interconnect said first and second circuits, the system being arranged, during engine brake operation, - to command said interconnecting valve (SW) to operatively interconnect said main and auxiliary circuits, and then - to control said main pump to provide for a relative maximum oil flow, and - to control said auxiliary pump to extract energy from said oil flow provided by said main pump, thereby generating electric energy.
A revolving door with a drive unit , wherein the revolving door includes a ceiling element , at which the drive unit is disposed and connected to the same for driving a turnstile of the revolving door , wherein no further components of the revolving door are located at the top side of the ceiling element , wherein a reception pot is provided, which is disposed on the underside of the ceiling element , wherein the ceiling element is provided with an underside recess, in which the reception pot is inserted, and screw elements screw the reception pot to the ceiling element , wherein the drive unit comprises a flat cylinder shaped electronically commutated multi-pole motor , which is inserted into a mounting trough formed by a reception pot and open in the direction towards the mounting space of the turnstile .