mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the aging SOH of a lithium-ion cell, comprising the following steps: - identification of a first voltammogram (11, 12) by means of a cyclic voltammetry process at a first time; - identification of a second voltammogram (21, 22) by means of a further cyclic voltammetry process at a second time that is later relative to the first time; - identification of a first extreme value in the first voltammogram (11, 12) and of a second extreme value in the second voltammogram (21, 22), wherein at least one voltage U 1 or U 2 and a current intensity I 1 or I 2 are associated with each extreme value (41, 42), wherein the first and/or second extreme value (41, 42) is set as a peak value of the current intensity in the voltage range of from 3.4 V to 3.7 V; and - determination of the aging SOH of the lithium-ion cell depending on a difference between the first and second extreme value (41, 42). - identification of a first voltammogram (11, 12) by means of a cyclic voltammetry process at a first time; - identification of a second voltammogram (21, 22) by means of a further cyclic voltammetry process at a second time that is later relative to the first time; - identification of a first extreme value in the first voltammogram (11, 12) and of a second extreme value in the second voltammogram (21, 22), wherein at least one voltage U 1 or U 2 and a current intensity I 1 or I 2 are associated with each extreme value (41, 42), wherein the first and/or second extreme value (41, 42) is set as a peak value of the current intensity in the voltage range of from 3.4 V to 3.7 V; and - determination of the aging SOH of the lithium-ion cell depending on a difference between the first and second extreme value (41, 42).
A composition suitable as a film forming composition for a film capacitor, comprising (i) a thermoplastic resin, and (ii) surface-treated high dielectric inorganic particles obtained by treating surfaces of high dielectric inorganic particles having a dielectric constant (20°C, 1 kHz) of ≥ 100 with 0.1-20 parts by mass per 100 parts by mass of the particles of at least one low dielectric compound having a dielectric constant (20°C, 1 kHz) of ≤ 10 and being selected from an organosilane compound, an organozirconium compound, an organoaluminum compound and an organic phosphorus compound. (i) a thermoplastic resin, and (ii) surface-treated high dielectric inorganic particles obtained by treating surfaces of high dielectric inorganic particles having a dielectric constant (20°C, 1 kHz) of ≥ 100 with 0.1-20 parts by mass per 100 parts by mass of the particles of at least one low dielectric compound having a dielectric constant (20°C, 1 kHz) of ≤ 10 and being selected from an organosilane compound, an organozirconium compound, an organoaluminum compound and an organic phosphorus compound.
Surgical saw blade having at least one row of teeth and a coupling device for movably coupling and/or connecting the saw blade to a surgical drive unit defining an oscillation axis, wherein the saw blade comprises a first and a second saw blade part (42, 44), wherein the first saw blade part comprises the at least one row of teeth, wherein the second saw blade part comprises the coupling device, wherein the first saw blade part and the second saw blade part are articulately connected together, wherein the first saw blade part and the second saw blade part are supported on each other for pivotal movement relative to each other about a pivot axis, wherein the second saw blade part defines a coupling plane and wherein the coupling plane contains the pivot axis, characterized in that the oscillation axis extends perpendicularly to the coupling plane containing the pivot axis.
A reinforcement whose surface has a coating of a composition, characterized in that the composition is composed of a solid resin and carbon nanotubes and this composition has been subjected to a heat treatment above the melting temperature or the softening range and below the crosslinking temperature of the optionally self-crosslinking solid resin, as a result of which the composition is fixed on the surface of the reinforcement.
Anti-theft device configured to be attached to merchandise to be protected, in particular textile products, comprising: - a housing and - a locking mechanism which has a needle, the needle being adjustable between a locking position, in which it engages with the merchandise to be protected, and a release position, in which detachment and removal of the anti-theft device from the merchandise to be protected are permitted, wherein the needle has a curved shape and is accommodated in the housing when in the release position, wherein the locking mechanism comprises a catch that is configured such that it can be releasably engaged with the needle in order to hold the needle in the locking position and allow it to be transferred to the release position when actuated by a release element associated with the catch, characterized in that the release element is made at least in part of a shape-memory alloy. - a housing and - a locking mechanism which has a needle, the needle being adjustable between a locking position, in which it engages with the merchandise to be protected, and a release position, in which detachment and removal of the anti-theft device from the merchandise to be protected are permitted, wherein the needle has a curved shape and is accommodated in the housing when in the release position, wherein the locking mechanism comprises a catch that is configured such that it can be releasably engaged with the needle in order to hold the needle in the locking position and allow it to be transferred to the release position when actuated by a release element associated with the catch, characterized in that the release element is made at least in part of a shape-memory alloy.
Driving device, including a housing, a transmitter, a driving element in the form of a piezo-electric or electrostrictive actuator and a driven element, wherein the transmitter is in frictional contact with the driven element and with a first end surface contacts the driving element and with a second end surface is in contact with a resilient element, wherein the driving element as well as the resilient element prop against the housing in a essentially parallel direction and the transmitter is at least sectional surrounded by a pretension element in such a fashion that the pretension element is spaced from the housing, wherein the driven element projects through the resilient element and through the transmitter and through the driving element.
A method for generating a spectrum extending from the infrared range to the ultraviolet range, comprising injecting, into an at least bimodal microstructured optical fibre, a beam of a pump laser emitting in a wavelength ( λ p) in the infrared range, characterised in that it comprises the following steps: - generation in the fibre of a first four-wave mixture or primary mixture centred on the wavelength of said laser beam, - generation in the fibre of at least a second four-wave mixture or secondary mixture centred on one of the lines (32, 34) issuing from the first four-wave mixture or secondary pump line, and - spectral broadening around at least one of the lines issuing from the second four-wave mixture. - generation in the fibre of a first four-wave mixture or primary mixture centred on the wavelength of said laser beam, - generation in the fibre of at least a second four-wave mixture or secondary mixture centred on one of the lines (32, 34) issuing from the first four-wave mixture or secondary pump line, and - spectral broadening around at least one of the lines issuing from the second four-wave mixture.
A method for performing statistics on data radio bearer, DRB, packet loss rate, characterized by comprising: in a cross-station / cross-board switching scenario, after a source cell is activated, performing statistics on a number of all downlink DRB data packets, a number of downlink DRB loss packets, and a number of downlink back-transmission DRB data packets received by the source cell in a preset period on a radio bearer of each service quality classification identifier, QCI, grade (201, 401, 402, 403); and calculating the DRB packet loss rate of the source cell according to the following formula: M T qci = ⌊ Ddisc T qci * 1000000 N T qci − N X 2 T qci ⌋, wherein, M ( T, qci) represents the DRB packet loss rate in the preset period on a radio bearer of any one QCI grade, N ( T,qci) represents the number of all downlink DRB data packets received by the source cell, N x2 ( T, qci) represents the number of downlink back-transmission DRB data packets, and the Ddisc ( T,qci) represents the number of the downlink DRB loss packets; or, after the source cell is activated, performing statistics on a number of downlink DRB loss packets, a number of downlink DRB data packets of which a hybrid automatic repeat request, HARQ, is successful and a number of DRB data packets of which the HARQ is failed of the cell in a preset period on a radio bearer of each QCI grade (201, 601, 602, 603); calculating the DRB packet loss rate of the source cell according to a following formula: M T qci = ⌊ Ddisc T qci * 1000000 N T qci + Dloss T qci + Ddisc T qci ⌋, wherein, M ( T,qci) represents the DRB packet loss rate in the preset period on the radio bearer of any one QCI grade, Ddisc ( T, qci) represents the number of the downlink DRB loss packets of the source cell, N ( T, qci) represents the number of the downlink DRB data packets of which the HARQ is successful, and the Dloss ( T, qci) represents the number of the downlink DRB data packets of which the HARQ is failed.
A control network system in which at least one master apparatus that generates a control packet is connected to a plurality of slave devices being controlled according to the control packet, wherein the master apparatus comprises a packet generation information registration unit, a packet generation unit, a communication unit, and a storage section (131, 132), wherein the packet generation information registration unit is adapted to: allocate, for each control command to a slave device, a data area to the storage section which stores therein a data handled by the control command; associate an allocated address, the control command to the slave device, an identifier of the slave device targeted by the control command, and an address for data access in a storage area in the slave device, with one another; and store the associated data in the storage section as packet generation information, wherein the at least one master apparatus and the plurality of the slave devices are connected via a ring network, and characterized in that, if the control packet which includes respective control commands to a plurality of the slave devices is transmitted from the master apparatus, the control packet is sequentially transferred to the slave devices via the ring network and is returned to the master apparatus from which the control packet has been transmitted; and wherein the communication unit is adapted to transmit the generated control packet to the slave device; wherein the packet generation unit is adapted to: select a control command for writing a data from the master apparatus to the slave device, from among the packet generation information; reference the packet generation information for each selected control command; and include a data for write which is read from an address in the storage section corresponding to the each control command, in the control packet to generate the control packet. select a control command for writing a data from the master apparatus to the slave device, from among the packet generation information; reference the packet generation information for each selected control command; and include a data for write which is read from an address in the storage section corresponding to the each control command, in the control packet to generate the control packet.
Amphiphilic block copolymer comprising: • a first block consisting of a polymeric hydrophilic domain, wherein the polymeric hydrophilic domain consists of a polyglycerol, • a second block consisting of a hydrophobic domain and a first linker domain, wherein the second block is covalently bound to the first block via the first linker domain, wherein the hydrophobic domain is chosen from the group consisting of aromatic residues having 3 to 20 carbon atoms, aliphatic residues having 3 to 20 carbon atoms, oligo(dimethylsiloxane), and poly(dimethylsiloxane), • a third block consisting of a catechol domain and a second linker domain, wherein the third block is covalently bound to the first block via the second linker domain, wherein the catechol domain comprises at least one catechol residue, and • a forth block consisting of a crosslinking domain and a third linker domain, wherein the forth block is covalently bound to the first block via the third linker domain, wherein the crosslinking domain comprises a reactive residue enabling a crosslinking between individual molecules of the amphiphilic block copolymer, wherein the reactive residue is at least one residue chosen from the group consisting of amines, thiols, allyls, vinyls, azides, alkynes, carboxyls, anhydrides, aldehydes, and benzophenone. • a first block consisting of a polymeric hydrophilic domain, wherein the polymeric hydrophilic domain consists of a polyglycerol, • a second block consisting of a hydrophobic domain and a first linker domain, wherein the second block is covalently bound to the first block via the first linker domain, wherein the hydrophobic domain is chosen from the group consisting of aromatic residues having 3 to 20 carbon atoms, aliphatic residues having 3 to 20 carbon atoms, oligo(dimethylsiloxane), and poly(dimethylsiloxane), • a third block consisting of a catechol domain and a second linker domain, wherein the third block is covalently bound to the first block via the second linker domain, wherein the catechol domain comprises at least one catechol residue, and • a forth block consisting of a crosslinking domain and a third linker domain, wherein the forth block is covalently bound to the first block via the third linker domain, wherein the crosslinking domain comprises a reactive residue enabling a crosslinking between individual molecules of the amphiphilic block copolymer, wherein the reactive residue is at least one residue chosen from the group consisting of amines, thiols, allyls, vinyls, azides, alkynes, carboxyls, anhydrides, aldehydes, and benzophenone.
An airfoil member (2, 3) comprising: an airfoil body (2a, 10); an end wall (2b, 2c, 20) which is installed at an end part (58, 59, 14) of the airfoil body (2a, 10) in a blade span direction; a fillet portion (41, 42, 40) which smoothly connects the end part (58, 59, 14) of the airfoil body (2a, 10) with the end wall (2b, 2c, 20); and a cooling channel (57, 50) which allows a cooling medium (c) to circulate inside the airfoil body (2a, 10) and the end wall (2b, 2c, 20) and in which two main channels (57a-c, 53b, 53c) extending along the blade span direction are connected so as to bend in a folding manner at a return channel (57d, 53) formed on the end wall (2b, 2c, 20) side of the airfoil body, wherein the return channel (57d, 53) is formed so as to run along the fillet portion (41, 42, 40), characterized in that the return channel (57d, 53) is also formed in such a manner that the width thereof in the profile thickness direction is greater than the width of the main channel in the profile thickness direction, and wherein the return channel (57d, 53) is provided with a projection part which is formed at the center of the airfoil body in the profile thickness direction to guide the flow of the cooling medium to both sides in the profile thickness direction. an airfoil body (2a, 10); an end wall (2b, 2c, 20) which is installed at an end part (58, 59, 14) of the airfoil body (2a, 10) in a blade span direction; a fillet portion (41, 42, 40) which smoothly connects the end part (58, 59, 14) of the airfoil body (2a, 10) with the end wall (2b, 2c, 20); and a cooling channel (57, 50) which allows a cooling medium (c) to circulate inside the airfoil body (2a, 10) and the end wall (2b, 2c, 20) and in which two main channels (57a-c, 53b, 53c) extending along the blade span direction are connected so as to bend in a folding manner at a return channel (57d, 53) formed on the end wall (2b, 2c, 20) side of the airfoil body, wherein the return channel (57d, 53) is formed so as to run along the fillet portion (41, 42, 40), characterized in that the return channel (57d, 53) is also formed in such a manner that the width thereof in the profile thickness direction is greater than the width of the main channel in the profile thickness direction, and wherein the return channel (57d, 53) is provided with a projection part which is formed at the center of the airfoil body in the profile thickness direction to guide the flow of the cooling medium to both sides in the profile thickness direction.
A method for controlling regenerator temperature in an oxygenates-to-olefins system, comprising the steps of: (a) contacting a feed comprising an oxygenate with a catalytically effective amount of a molecular sieve-containing catalyst in a reaction zone under conditions sufficient to convert said oxygenate to a product containing light olefins, and thereby forming an at least partially coked catalyst; (b) conducting a portion of the at least partially coked catalyst from the reaction zone to a regeneration system which comprises a catalyst cooler and a regenerator having a catalyst bed, a catalyst cooler inlet, a catalyst cooler outlet, a catalyst bed height (H c), a catalyst cooler inlet height (H i), a catalyst cooler outlet height (H o), optionally but preferably a regeneration zone, and optionally but preferably a separation zone; (c) contacting a portion of the at least partially coked catalyst in the regenerator with an oxygen-containing regeneration medium at a first temperature under conditions effective to at least partially regenerate the at least partially coked catalyst; and (d) conducting a portion of the catalyst from the regenerator through the catalyst cooler inlet to the catalyst cooler to form a cooled portion of catalyst, which is then conducted through the catalyst cooler outlet back into the regenerator to control temperature in the regenerator, wherein H o is greater than H i and H e, and wherein the heights H c, H i and H o are measured from a common base at the bottom of the regenerator catalyst bed. (a) contacting a feed comprising an oxygenate with a catalytically effective amount of a molecular sieve-containing catalyst in a reaction zone under conditions sufficient to convert said oxygenate to a product containing light olefins, and thereby forming an at least partially coked catalyst; (b) conducting a portion of the at least partially coked catalyst from the reaction zone to a regeneration system which comprises a catalyst cooler and a regenerator having a catalyst bed, a catalyst cooler inlet, a catalyst cooler outlet, a catalyst bed height (H c), a catalyst cooler inlet height (H i), a catalyst cooler outlet height (H o), optionally but preferably a regeneration zone, and optionally but preferably a separation zone; (c) contacting a portion of the at least partially coked catalyst in the regenerator with an oxygen-containing regeneration medium at a first temperature under conditions effective to at least partially regenerate the at least partially coked catalyst; and (d) conducting a portion of the catalyst from the regenerator through the catalyst cooler inlet to the catalyst cooler to form a cooled portion of catalyst, which is then conducted through the catalyst cooler outlet back into the regenerator to control temperature in the regenerator, wherein H o is greater than H i and H e, and wherein the heights H c, H i and H o are measured from a common base at the bottom of the regenerator catalyst bed.
A method of operating a position estimation entity, comprising: obtaining a first differential round trip time, RTT, measurement based on a first RTT measurement between a user equipment, UE, and a first wireless node and a second RTT measurement between the UE and a second wireless node; obtaining a second differential RTT measurement based on a third RTT measurement between a third wireless node and the first wireless node and a fourth RTT measurement between the third wireless node and the second wireless node; and determining a positioning estimate of the UE based at least in part on the first differential RTT measurement and the second differential RTT measurement. obtaining a first differential round trip time, RTT, measurement based on a first RTT measurement between a user equipment, UE, and a first wireless node and a second RTT measurement between the UE and a second wireless node; obtaining a second differential RTT measurement based on a third RTT measurement between a third wireless node and the first wireless node and a fourth RTT measurement between the third wireless node and the second wireless node; and determining a positioning estimate of the UE based at least in part on the first differential RTT measurement and the second differential RTT measurement.
A blower comprising: an upper fan configured to generate a first airflow sucked through an upper suction part and then discharged; a lower fan provided under the upper fan and configured to generate a second airflow sucked through a lower suction part and then discharged; an airflow changing device (180, 280) disposed between the upper fan and the lower fan and configured to generate a third airflow obtained by combining the first airflow and the second airflow; the blower being characterised in that it further comprises a controller configured to control rotation speeds of the upper fan and the lower fan to adjust a discharge direction of the third airflow.
Transport container with a self-supporting first element, designed as an injection-moulded plastic part, which has an inside and an outside and which encloses a first interior space (I 1), and a second element, which lies against the first element at least in some sections and which encloses a second interior space (I 2), wherein the second interior space (I 2) exhibits almost the same volume as the first interior space (I 1), characterized in that the second element is arranged on the inside of the first element so that the second interior space (I 2) lies completely within the first interior space (I 1), that the second element is a plastic thermoformed part, that the first element has an upper edge, which is surrounded at least in sections by the second element, and that the transport container further has a cover, which in the closed state is exclusively in contact with the second element.