mhurhangee/ep-ind-claims huggingface dataset:
A polymer composition comprising components selected from the group consisting of: (i) at least one a poly(aryl ether ketone) (PAEK), (ii) a poly(ether sulfone), (iii) a reactive poly(ether sulfone) (rPES), (iv) a reactive poly(aryl ether ketone) (rPAEK), (v) an acid component having a pKa ≤ 7.5, and (vi) from about 0.05 to about 2 wt.% of at least one alkali metal carbonate, based on the total weight of polymers in the polymer composition, wherein the polymer composition comprises: - components (i), (ii), (iii), (vi), and optionally (v), - components (i), (ii), (iv), (vi), and optionally (v), - components (i), (ii), (v), and (vi), - components (iii), (iv), and (vi), - components (iii), (iv), (v), and (vi), - components (i), (iii), (vi), and optionally (v), or - components (ii), (iv), (vi), and optionally (v). (i) at least one a poly(aryl ether ketone) (PAEK), (ii) a poly(ether sulfone), (iii) a reactive poly(ether sulfone) (rPES), (iv) a reactive poly(aryl ether ketone) (rPAEK), (v) an acid component having a pKa ≤ 7.5, and (vi) from about 0.05 to about 2 wt.% of at least one alkali metal carbonate, based on the total weight of polymers in the polymer composition, - components (i), (ii), (iii), (vi), and optionally (v), - components (i), (ii), (iv), (vi), and optionally (v), - components (i), (ii), (v), and (vi), - components (iii), (iv), and (vi), - components (iii), (iv), (v), and (vi), - components (i), (iii), (vi), and optionally (v), or - components (ii), (iv), (vi), and optionally (v).
A system comprising: a plurality of processors each configurable to receive a set of commands that directs the processor to perform a task; at least one driver configurable to build a command buffer comprising the set of commands, wherein the same command buffer is made available to each of the plurality of processors, and each processor performs different portions of the task, wherein the set of commands comprise a predicated execution command that precedes other commands within the set of commands, characterised by the predicated execution command including a processor select bit field used to determine whether commands that follow the predicated execution command should be processed and executed by a particular one of the processors, or whether a number N of the commands that follow the predicated execution command should be ignored, where N is programmed into a packet header. a plurality of processors each configurable to receive a set of commands that directs the processor to perform a task; at least one driver configurable to build a command buffer comprising the set of commands, wherein the same command buffer is made available to each of the plurality of processors, and each processor performs different portions of the task, wherein the set of commands comprise a predicated execution command that precedes other commands within the set of commands, characterised by the predicated execution command including a processor select bit field used to determine whether commands that follow the predicated execution command should be processed and executed by a particular one of the processors, or whether a number N of the commands that follow the predicated execution command should be ignored, where N is programmed into a packet header.
A metal complex comprising a metal and one or more ligands, wherein at least one of the ligands is a compound of the formula: wherein R 1 is an unsubstituted cyclopentadienyl group or a cyclopentadienyl group substituted with 1, 2, 3 or 4 substituents independently selected from methyl, ethyl and phenyl; X is an alkylene group or an alkenylene group having from 2 to 20 in-chain carbon atoms, either of which is optionally interrupted by one or more in-chain heteroatoms, wherein the alkylene or alkenylene chain is substituted, the one or more substituents optionally being selected from amino, hydroxy, C 1-6 alkyl, C 1-6 alkoxy and carbonyl groups; Y' is selected from -O-, -S- and aminylene; Z is a solid support; and wherein the metal complex is bound to an outer surface of the support Z; provided that the metal complex is not wherein R 1 is an unsubstituted cyclopentadienyl group or a cyclopentadienyl group substituted with 1, 2, 3 or 4 substituents independently selected from methyl, ethyl and phenyl; X is an alkylene group or an alkenylene group having from 2 to 20 in-chain carbon atoms, either of which is optionally interrupted by one or more in-chain heteroatoms, wherein the alkylene or alkenylene chain is substituted, the one or more substituents optionally being selected from amino, hydroxy, C 1-6 alkyl, C 1-6 alkoxy and carbonyl groups; Y' is selected from -O-, -S- and aminylene; Z is a solid support; and
A composite pack for filling a liquid material, which is comprised of a bag-shaped interior member formed by filling a liquid material into a soft package bag and an exterior member (10, 10') having a cylindrical body provided on its lower end with a bottom wall and on its upper end with an opening portion for housing the interior member, the exterior member (10, 10') having a sealing structure unit comprising a top face wall for closing the opening portion and plural vertical ribs (17a, 17b, 17c, 17d) standing up from the top face wall, characterized in that the interior member is provided with a sheet-like pouring nozzle for liquid material protruding to an upper end portion or a side end upper portion of the package bag, and one of the vertical ribs (17a, 17b, 17c, 17d) is a vertical cover rib (17a, 19) for clamping and covering the sheet-like pouring nozzle for liquid material, and the vertical cover rib (17a, 19) has a given cut-off line capable of exposing the liquid material pouring sheet-like nozzle. the exterior member (10, 10') having a sealing structure unit comprising a top face wall for closing the opening portion and plural vertical ribs (17a, 17b, 17c, 17d) standing up from the top face wall, characterized in that the interior member is provided with a sheet-like pouring nozzle for liquid material protruding to an upper end portion or a side end upper portion of the package bag, and one of the vertical ribs (17a, 17b, 17c, 17d) is a vertical cover rib (17a, 19) for clamping and covering the sheet-like pouring nozzle for liquid material, and the vertical cover rib (17a, 19) has a given cut-off line capable of exposing the liquid material pouring sheet-like nozzle.
Method for compensating DC offset in a signal path comprising a plurality of stages (k, n) arranged in a chain forming a signal path, each stage having an individual gain wherein for each stage (k, n) a DC compensation is performed by introducing a DC compensation signal (340...34k...34n) into said stage by means of a compensation digital to analog converter that is configured to add the DC compensation signal to the DC offset of said stage (k, n), wherein said DC compensation signal is determined by setting a first gain of each of the preceding stage(s) and a first gain of said stage, setting at least two different DC compensation signals for said stage and measuring a DC residual signal at the output of the signal path for each of the two different DC compensation signals in order to determine a first linear relationship (51i, 51q) between DC compensation signal and DC offset residual at the output of said signal path, setting a second gain of each the preceding stage(s) and a second gain of said stage, setting at least two different DC compensation signals and measuring a DC residual signal at the output of the signal path for each of the two different DC compensation signals in order to determine a second linear relationship (52i, 52q) between DC compensation value and gain, characterised by determining an interception point (53i, 53q) of said first linear relationship and said second linear relationship, wherein the DC compensation signal of said interception point is the DC compensation signal of the compensation digital to analog converter of said stage.
A message processing method, wherein the method comprises: receiving, by a network device, a first message, wherein the first message indicates P direct current DC locations, each of the P DC locations is a DC location corresponding to any two bandwidth parts BWP in a CC pair composed of any two of A component carriers CC that are configured by the network device for a terminal, the any two BWPs are respectively located in different CCs in the CC pair, P is an integer greater than or equal to 1, and A is an integer equal to or greater than 2; and determining, by the network device, a DC location of current communication based on the first message. receiving, by a network device, a first message, wherein the first message indicates P direct current DC locations, each of the P DC locations is a DC location corresponding to any two bandwidth parts BWP in a CC pair composed of any two of A component carriers CC that are configured by the network device for a terminal, the any two BWPs are respectively located in different CCs in the CC pair, P is an integer greater than or equal to 1, and A is an integer equal to or greater than 2; and determining, by the network device, a DC location of current communication based on the first message.
A method for secure access by a user U1 with his/her computer C1 in a first local network A to digital services (13, 15, 16) in a second local network B, wherein both networks are secured via a firewall (7, 8), and wherein both networks are connected via a network Nab arranged between the firewalls, comprising the steps of: - Authenticating of the user U1 at the first firewall (7, 8); - With the authentication it is determined by a rule that the user U1 may access a specific jump server (13, 15, 16) within the network Nab; - Accessing the jump server (9, 10) and authenticating of the user U1 at the jump server (9, 10), and assigning of an unique IP address in dependence of the authentication; - Accessing the service (13, 15, 16) in the second network B via the jump server (9, 10), wherein an authentication of the IP address on the second firewall (7, 8) takes place; - Determining a rule on the second firewall (7, 8) on the basis of the IP address to verify whether an access to the service (13, 15, 16) is allowed, if an access is allowed, passing the request from the jump server (9, 10) into the second network B to the service (13, 15, 16). - Authenticating of the user U1 at the first firewall (7, 8); - With the authentication it is determined by a rule that the user U1 may access a specific jump server (13, 15, 16) within the network Nab; - Accessing the jump server (9, 10) and authenticating of the user U1 at the jump server (9, 10), and assigning of an unique IP address in dependence of the authentication; - Accessing the service (13, 15, 16) in the second network B via the jump server (9, 10), wherein an authentication of the IP address on the second firewall (7, 8) takes place; - Determining a rule on the second firewall (7, 8) on the basis of the IP address to verify whether an access to the service (13, 15, 16) is allowed, if an access is allowed, passing the request from the jump server (9, 10) into the second network B to the service (13, 15, 16).
A scroll pump, in particular a scroll vacuum pump, comprising a housing (12, 14) and an orbiter which is located in the housing and which has a carrier plate and a spiral extending from the carrier plate, wherein, in the carrier plate, a plurality of passage openings are formed through which a housing region, which is located on a side of the carrier plate facing away from the spiral of the orbiter, is accessible for a tool for assembly purposes, characterized in that a first, a second and at least a third passage opening are formed in the carrier plate and are arranged uniformly distributed in the peripheral direction around the center of the spiral. wherein, in the carrier plate, a plurality of passage openings are formed through which a housing region, which is located on a side of the carrier plate facing away from the spiral of the orbiter, is accessible for a tool for assembly purposes, characterized in that a first, a second and at least a third passage opening are formed in the carrier plate and are arranged uniformly distributed in the peripheral direction around the center of the spiral.
A laser system in master-oscillator/power-amplifier (MOPA) configuration, comprising a pulsed diode master oscillator (1, 3) and a pumped active optical fibre power amplifier (9, 25) downstream said master oscillator, substantially all guides of laser light being optical fibres (5, 9, 31, 29, 33, 25, 35, 39, 45) and comprising an optical fibre (25, 39), one end thereof being operationally connected to a transmitter optic (41, 41 T) for laser light dependent from laser light output from said master-oscillator/power-amplifier configuration, the laser system being a distance measuring system of cooperative or non-cooperative targets, characterized in that the divergence of a beam of said dependent laser light from said transmitter optic (41, 41 T) is determined by increasing the mode field diameter of said end of said optical fibre (25, 39) to the transmitter optic (41, 41 T) by one of: - diffusion of dopants obtained by heating the fibre (25, 39) in a flame, - irradiating the fibre (25, 39) with a CO 2 laser, - reducing the core diameter by tapering the fibre (25, 39), - coupling the core mode near the end of fibre (25, 39) into a cladding mode, - providing lensed fibre end, - UV-irradiation of a photo-sensitive cladding at a fibre spot size expander using UV-trimming of trilayer photosensitive fibres, and - core-less fibre end caps applied to the end of fibre (25, 39). - diffusion of dopants obtained by heating the fibre (25, 39) in a flame, - irradiating the fibre (25, 39) with a CO 2 laser, - reducing the core diameter by tapering the fibre (25, 39), - coupling the core mode near the end of fibre (25, 39) into a cladding mode, - providing lensed fibre end, - UV-irradiation of a photo-sensitive cladding at a fibre spot size expander using UV-trimming of trilayer photosensitive fibres, and - core-less fibre end caps applied to the end of fibre (25, 39).
Method for conversion of a feeding appliance, wherein a longitudinal conveyor is detached from the running gear of the feeding appliance and, for commencement of operation, is attached again, and, for the attachment and detachment, the handling of the longitudinal conveyor is performed by a lifting device, characterized in that the longitudinal conveyor is automatically hooked onto the running gear by means of manoeuvring performed by the lifting device.
A power saving method, comprising: performing, by a terminal, physical downlink control channel PDCCH monitoring on a duration timer within a first number N1 of DRX cycles in response to a power saving signal being detected; and skipping, by the terminal, the PDCCH monitoring on a duration timer within a second number N2 of DRX cycles in response to detecting no wake up signaling; wherein, the first number N1 indicates a monitored period in response to the power saving signal is detected, the second number N2 indicates a skipping period in response to detecting no wake up signaling, the first number N1 and the second number N2 are different. performing, by a terminal, physical downlink control channel PDCCH monitoring on a duration timer within a first number N1 of DRX cycles in response to a power saving signal being detected; and skipping, by the terminal, the PDCCH monitoring on a duration timer within a second number N2 of DRX cycles in response to detecting no wake up signaling; wherein, the first number N1 indicates a monitored period in response to the power saving signal is detected, the second number N2 indicates a skipping period in response to detecting no wake up signaling, the first number N1 and the second number N2 are different.
Method of modulating the phase of a carrier wave signal from a transmitter to a contactless transponder, wherein data are encoded in the form of consecutive symbols (Sn-1, Sn), each corresponding to a predefined number of carrier wave cycles and having a symbol time (Ts) greater than or equal to two cycles of the carrier wave signal, wherein, at transmitter level, a phase shift of a symbol is spread in relation to a preceding symbol over a first part of the symbol time, the establishment of the phase shift being completed during the first part of the symbol time and the periods of the cycles being constant during the second part of the symbol time, characterised in that when the phase shift between two consecutive symbols to transmit is above a predefined threshold, a phase shift portion is applied in the first part of the symbol time over at least two carrier wave cycles of the symbol to transmit, the sum of the phase shift portions being equal to the phase shift between the two consecutive symbols.
A power converter (101, 201, 301) for a bioelectrochemical system, the power converter comprising: - two or more first converters (102-104, 202-204, 302-304) each comprising a direct current terminal (105, 205, 305) for supplying electric current via electrodes of the bioelectrochemical system, and - a second converter (106, 206, 306) for supplying energy to each of the first converters from an external electric power grid, wherein each of the first converters comprises at least one electric element (107, 207, 307a, 307b) for receiving energy from the second converter and at least one circuitry (108, 208, 308a, 308b) for converting voltage of the electric element into electrolysis voltage suitable for the bioelectrochemical system, characterized in that each of the first converters is galvanically isolated from other ones of the first converters when the first mentioned first converter is supplying energy to the bioelectrochemical system. - two or more first converters (102-104, 202-204, 302-304) each comprising a direct current terminal (105, 205, 305) for supplying electric current via electrodes of the bioelectrochemical system, and - a second converter (106, 206, 306) for supplying energy to each of the first converters from an external electric power grid,
A stackable access point device, comprising: a basic module comprising a plurality of interfaces (712a, 712b, 712c) and a processor, wherein the processor is configured to route data traffic (713a, 713b, 713c) through the stackable access point device based on a configuration of the stackable access point device; and at least one access technology specific extension module comprising a plurality of interfaces (722a, 722b, 722c) and a processor, wherein the processor is configured to process the data traffic (723a, 723b, 723c) based on a respective access technology, wherein the at least one extension module is stackable with the basic module by electrically connecting at least one interface of the basic module with at least one interface of the at least one extension module, wherein the configuration of the stackable access point device is based on a number of extension modules stacked together with the basic module and an order in which the at least one extension modules are stacked together with the basic module, characterized in that the processor of the basic module is configured to determine a specific routing path for routing the data traffic (713a, 713b, 713c) through the stackable access point device based on a specific configuration recipe received from a configuration database, wherein the configuration database comprises a plurality of configuration recipes associated with respective configurations of the stackable access point device. a basic module comprising a plurality of interfaces (712a, 712b, 712c) and a processor, wherein the processor is configured to route data traffic (713a, 713b, 713c) through the stackable access point device based on a configuration of the stackable access point device; and at least one access technology specific extension module comprising a plurality of interfaces (722a, 722b, 722c) and a processor, wherein the processor is configured to process the data traffic (723a, 723b, 723c) based on a respective access technology, wherein the at least one extension module is stackable with the basic module by electrically connecting at least one interface of the basic module with at least one interface of the at least one extension module, wherein the configuration of the stackable access point device is based on a number of extension modules stacked together with the basic module and an order in which the at least one extension modules are stacked together with the basic module, characterized in that the processor of the basic module is configured to determine a specific routing path for routing the data traffic (713a, 713b, 713c) through the stackable access point device based on a specific configuration recipe received from a configuration database, wherein the configuration database comprises a plurality of configuration recipes associated with respective configurations of the stackable access point device.
A Furniture component with at least one functional wall, with an integrated or inserted furniture fitting for guiding a mobile furniture part, wherein the functional wall comprises two side faces (3, 4), a front face and front-face recess for locating the furniture fitting, wherein the furniture fitting comprises a base element, a linear guide and a swivel guide linked to the latter and wherein the linear guide comprises positively driven mobile elements, to which the swivel guide is linked spaced apart from the base element, wherein the two side faces (3, 4) lies in a first and a second plane, wherein at least the linear guide in a closed position of the furniture fitting lies between the first and the second plane and the linear guide and the swivel guide are coupled with one another, so that first a linear movement and then at least one swivelling movement is performed during an opening movement, and wherein the furniture fitting comprises at least one damping device for damping the closing/or opening movement, wherein the damping device is constituted as a linear damper and/or a rotation damper.
A method for impregnating a polymer granulate with a predefined mass of a gaseous blowing agent, wherein - the polymer granulate is arranged in an interior space of a pressure vessel, - a gaseous blowing agent is initially introduced into the interior space of the pressure vessel, wherein blowing agent is absorbed by the polymer granulate and an instantaneous pressure (p 2) prevailing in the interior space is measured, characterized in that an instantaneous mass (Δm) of the blowing agent absorbed by the polymer granulate is determined as the difference between the total mass (mi) of the blowing agent initially introduced into the interior space of the pressure vessel and the mass (m 2) of a non-absorbed part of the blowing agent located in the interior space at the moment, and wherein the method is stopped when the instantaneous mass (Δm) of the absorbed blowing agent is greater than or equal to the predefined mass. - the polymer granulate is arranged in an interior space of a pressure vessel, - a gaseous blowing agent is initially introduced into the interior space of the pressure vessel, wherein blowing agent is absorbed by the polymer granulate and an instantaneous pressure (p 2) prevailing in the interior space is measured, characterized in that an instantaneous mass (Δm) of the blowing agent absorbed by the polymer granulate is determined as the difference between the total mass (mi) of the blowing agent initially introduced into the interior space of the pressure vessel and the mass (m 2) of a non-absorbed part of the blowing agent located in the interior space at the moment, and wherein the method is stopped when the instantaneous mass (Δm) of the absorbed blowing agent is greater than or equal to the predefined mass.