mhurhangee/patent-ind-claim-en huggingface dataset:
A method of selectively extracting a targeted anion from an aqueous solution, comprising the steps of: combining a solvent and anion-encapsulating components with the aqueous solution containing the targeted anion to form an organic-aqueous mixture having an organic phase and an aqueous phase, wherein the anion-encapsulating components include a copper ion contributor, a hydroxide ion contributor, and a pyrazole to form compounds having a formula cis-Cu II x (OR 1 ) y (R 2 pz) z , where R 1 is H, CH 3 , C 2 H 5 , C 3 H 7 , C 4 H 9 or another alkyl group, R 2 is H, CH 3 , C 2 H 5 , C 3 H 7 or C 4 H 9 or another alkyl or charged group, pz is a pyrazolate anion, and each of x, y, and z is equal to an integer between about 1 and 40, inclusive; allowing the anion-encapsulating components to react to form encapsulating hosts in situ in the organic-aqueous mixture around the target anions to contain the target ions therein, the encapsulating hosts containing the target ions transferring to the organic phase; wherein the target anion is chosen from the group consisting of sulfate, phosphate, arsenate, carbonate, selenate, selenite, sulfite, chromate, pyrophosphate and arsenite ions; and separating the organic phase and the aqueous phase. combining a solvent and anion-encapsulating components with the aqueous solution containing the targeted anion to form an organic-aqueous mixture having an organic phase and an aqueous phase, wherein the anion-encapsulating components include a copper ion contributor, a hydroxide ion contributor, and a pyrazole to form compounds having a formula cis-Cu II x (OR 1 ) y (R 2 pz) z , where R 1 is H, CH 3 , C 2 H 5 , C 3 H 7 , C 4 H 9 or another alkyl group, R 2 is H, CH 3 , C 2 H 5 , C 3 H 7 or C 4 H 9 or another alkyl or charged group, pz is a pyrazolate anion, and each of x, y, and z is equal to an integer between about 1 and 40, inclusive; allowing the anion-encapsulating components to react to form encapsulating hosts in situ in the organic-aqueous mixture around the target anions to contain the target ions therein, the encapsulating hosts containing the target ions transferring to the organic phase; wherein the target anion is chosen from the group consisting of sulfate, phosphate, arsenate, carbonate, selenate, selenite, sulfite, chromate, pyrophosphate and arsenite ions; and separating the organic phase and the aqueous phase.
An electro-pneumatic brake system for an automotive vehicle, said system comprising a service brake arrangement and a park brake arrangement, said service brake arrangement being configured to operate either under a normal brake operating mode (NF) or under a redundant operating mode (BF), said system comprising: - one or more front axle brake module (FBM, 9F) for providing pneumatic brake pressure to the left and right front pneumatic brake actuators (FW-L, FW-R), - one or more rear axle brake module (RBM, 9R) for providing pneumatic brake pressure to the left and right rear pneumatic brake actuators (RW-L, RW-R), wherein one or more of rear pneumatic brake actuators comprising a park brake chamber, each of front and rear axle brake module (FBM, RBM) comprising an electrical control input (E1) and a pneumatic control input (E2), - a first bistable relay valve configured to supply parking brake pressure to the park brake chambers, - a first pressure control device for generating a first pressure (P1), - a second pressure control device for generating a second pressure (P2), - a first service brake backup line , for controlling at least the pneumatic control input of the front axle brake module (FBM, 9F) - a second service brake backup line for controlling the pneumatic control input of the rear axle brake module (RBM, 9R) the system characterized in that it comprises a swap arrangement configured to: - selectively connect the first pressure (P1) to the input of the first bistable relay valve or to the first service brake backup line , the swap arrangement being further configured to connect the second pressure (P2) to the second service brake backup line . - one or more front axle brake module (FBM, 9F) for providing pneumatic brake pressure to the left and right front pneumatic brake actuators (FW-L, FW-R), - one or more rear axle brake module (RBM, 9R) for providing pneumatic brake pressure to the left and right rear pneumatic brake actuators (RW-L, RW-R), wherein one or more of rear pneumatic brake actuators comprising a park brake chamber, each of front and rear axle brake module (FBM, RBM) comprising an electrical control input (E1) and a pneumatic control input (E2), - a first bistable relay valve configured to supply parking brake pressure to the park brake chambers, - a first pressure control device for generating a first pressure (P1), - a second pressure control device for generating a second pressure (P2), - a first service brake backup line , for controlling at least the pneumatic control input of the front axle brake module (FBM, 9F) - a second service brake backup line for controlling the pneumatic control input of the rear axle brake module (RBM, 9R) - selectively connect the first pressure (P1) to the input of the first bistable relay valve or to the first service brake backup line , the swap arrangement being further configured to connect the second pressure (P2) to the second service brake backup line .
An apparatus implementing an element manager, EM , the apparatus configured to: send a measurement request to a Virtual Network Function Manager, VNFM , to create a virtualized resource, VR, performance measurement, PM, collection task at the VNFM , wherein the VNFM is coupled with the EM through a Ve-Vnfm-Em reference point, and wherein the VR PM collection task is to cause collection of VR PM data of a VR of a VNF indicated by the EM , by the VNFM subsequently requesting creation of the VR PM collection task from a Virtualized Infrastructure Manager VIM; receive, through the Ve-Vnfm-Em reference point, the VR PM data from the VNFM in response to creation of the VR PM collection task in the VNFM ; and transmit, to a Network Manager, NM , connected with the EM through an Itf-N reference point, the VR PM data. send a measurement request to a Virtual Network Function Manager, VNFM , to create a virtualized resource, VR, performance measurement, PM, collection task at the VNFM , wherein the VNFM is coupled with the EM through a Ve-Vnfm-Em reference point, and wherein the VR PM collection task is to cause collection of VR PM data of a VR of a VNF indicated by the EM , by the VNFM subsequently requesting creation of the VR PM collection task from a Virtualized Infrastructure Manager VIM; receive, through the Ve-Vnfm-Em reference point, the VR PM data from the VNFM in response to creation of the VR PM collection task in the VNFM ; and transmit, to a Network Manager, NM , connected with the EM through an Itf-N reference point, the VR PM data.
Door handle assembly , in particular door outside handle assembly, for a door, in particular for a vehicle door, comprising a door handle , which is movable from a recessed position into a use position, and a restoring spring , wherein the restoring spring is coupled to the door handle and, in the recessed position and in the use position, is coupled to a counter bearing (G) which is at least then stationary, wherein the restoring spring is decoupled from the counter bearing (G) between the recessed position and the use position.
A segmental wall block comprising: (a) a front face ; (b) a rear cavity opposing the front face and formed by an inner rear face , an outer rear face on three sides of the inner rear face and spaced apart therefrom, and a shelf defined therein by the inner rear face and the outer rear face ; (c) a troughed top face residing between the front face and the outer rear face ; (d) a flat bottom face opposing the troughed top face ; (e) a first side face residing between the front face and the outer rear face , and between the troughed top face and the flat bottom face ; (f) a second side face opposing the first side face ; characterized in that the segmental wall block further comprises: (g) a trough running along the length of the troughed top face and along the length of the first side face ; (h) a first groove disposed within the trough and running along the length of the troughed top face and along the length of the first side face ; and (i) a second groove running along the length of the second side face . (a) a front face ; (b) a rear cavity opposing the front face and formed by an inner rear face , an outer rear face on three sides of the inner rear face and spaced apart therefrom, and a shelf defined therein by the inner rear face and the outer rear face ; (c) a troughed top face residing between the front face and the outer rear face ; (d) a flat bottom face opposing the troughed top face ; (e) a first side face residing between the front face and the outer rear face , and between the troughed top face and the flat bottom face ; (f) a second side face opposing the first side face ; characterized in that the segmental wall block further comprises: (g) a trough running along the length of the troughed top face and along the length of the first side face ; (h) a first groove disposed within the trough and running along the length of the troughed top face and along the length of the first side face ; and (i) a second groove running along the length of the second side face .
A network device , comprising: a processor circuit configured to generate indication information indicating a position of a synchronization signal/physical broadcast channel, SS/PBCH, block in a signal transmission period; and a transmitter configured to transmit the indication information to a user equipment, UE, wherein the indication information is an index of the SS/PBCH block and the indication information comprises two parts of information, a first part of the indication information being the least significant bits, LSB, of the index of the SS/PBCH block that are indicated by a demodulation reference signal, DMRS, sequence, and a second part of the indication information being the most significant bits, MSB, of the index of the SS/PBCH block that are indicated by a PBCH payload. a processor circuit configured to generate indication information indicating a position of a synchronization signal/physical broadcast channel, SS/PBCH, block in a signal transmission period; and a transmitter configured to transmit the indication information to a user equipment, UE, wherein the indication information is an index of the SS/PBCH block and the indication information comprises two parts of information, a first part of the indication information being the least significant bits, LSB, of the index of the SS/PBCH block that are indicated by a demodulation reference signal, DMRS, sequence, and a second part of the indication information being the most significant bits, MSB, of the index of the SS/PBCH block that are indicated by a PBCH payload.
A gallium nitride semiconductor substrate, comprising: a gallium nitride single crystal; a diameter of not less than 25.4 mm; and a thickness of not less than 150 μm, wherein the substrate satisfies that a ratio of Δα/α is not more than 0.1, where α is a thermal expansion coefficient obtained by measuring a temperature dependent change of the sample size of the substrate, and wherein Δα is a difference (α-αL) between said thermal expansion coefficient α and a thermal expansion coefficient αL, which is determined based on the measurement of a temperature dependent change of the lattice constant. a gallium nitride single crystal; a diameter of not less than 25.4 mm; and a thickness of not less than 150 μm, wherein the substrate satisfies that a ratio of Δα/α is not more than 0.1, where α is a thermal expansion coefficient obtained by measuring a temperature dependent change of the sample size of the substrate, and wherein Δα is a difference (α-αL) between said thermal expansion coefficient α and a thermal expansion coefficient αL, which is determined based on the measurement of a temperature dependent change of the lattice constant.
A fastening apparatus comprising a die changer, characterized by further comprising a cartridge , said cartridge comprising: a main body defining a cavity configured to receive a plurality of dies ; an opening through which dies received by the cavity can be removed from the cavity; and an engagement portion configured to engage with a complementary engagement portion of the die changer of the fastening apparatus, wherein said engagement portion is configured to engage with a first die support of the die changer so as to secure the cartridge to the first die support. a main body defining a cavity configured to receive a plurality of dies ; an opening through which dies received by the cavity can be removed from the cavity; and an engagement portion configured to engage with a complementary engagement portion of the die changer of the fastening apparatus, wherein said engagement portion is configured to engage with a first die support of the die changer so as to secure the cartridge to the first die support.
Method for controlling a wind turbine that comprises a generator, is provided to feed electrical power into an electricity supply grid but has not yet been connected to the electricity supply grid , in a period from the substantially installation of the wind turbine until the connection of the wind turbine with the electrical supply grid, comprising the steps - generating electrical power using the generator and - supplying electrical elements of the wind turbine with the power generated. - generating electrical power using the generator and - supplying electrical elements of the wind turbine with the power generated.
A sensor module , comprising: a sensor element ; a first casing that includes an opening end and accommodates therein the sensor element ; a bracket that is configured to fix the first casing to an attachment target; and a second casing that includes a first surface (S1) that includes a first welding portion (W1) welded to the opening end , and a second surface (S2) that includes a second welding portion (W2) welded to the bracket , the second casing being fixed between the first casing and the bracket , wherein the first welding portion (W1) is annularly provided along a portion, in a peripheral edge of the second casing , that is situated on the first surface (S1), and wherein the second welding portion (W2) is annularly provided on a portion, in the peripheral edge, that is situated on the second surface (S2) on a side of an outer periphery of the first welding portion (W1). a sensor element ; a first casing that includes an opening end and accommodates therein the sensor element ; a bracket that is configured to fix the first casing to an attachment target; and a second casing that includes a first surface (S1) that includes a first welding portion (W1) welded to the opening end , and a second surface (S2) that includes a second welding portion (W2) welded to the bracket , the second casing being fixed between the first casing and the bracket , wherein the first welding portion (W1) is annularly provided along a portion, in a peripheral edge of the second casing , that is situated on the first surface (S1), and wherein the second welding portion (W2) is annularly provided on a portion, in the peripheral edge, that is situated on the second surface (S2) on a side of an outer periphery of the first welding portion (W1).
A method for the indirect determination of a specific formulation during an extrusion process in an extrusion device , having the following steps: - Determination of measurement data of at least one process parameter of the extrusion process of the extrusion device , - comparison of the specific measurement data with memory data of the same process parameter stored with respect to the specific formulation, - determination of the deviation of the measurement data from the memory data of the same process parameter and - comparison of the deviation of a predefined deviation threshold value, wherein a suitable specific formulation is sought in the stored memory data of the same process parameter depending on the determined measurement data, characterized in that in the event of a permissible deviation of the measurement data from the memory data below the predefined deviation threshold value said measurement data are added to the storage data and are used for a necessary change or refinement of the deviation threshold values. - Determination of measurement data of at least one process parameter of the extrusion process of the extrusion device , - comparison of the specific measurement data with memory data of the same process parameter stored with respect to the specific formulation, - determination of the deviation of the measurement data from the memory data of the same process parameter and - comparison of the deviation of a predefined deviation threshold value, wherein a suitable specific formulation is sought in the stored memory data of the same process parameter depending on the determined measurement data,
A method for forming an alumosilicate zeolite layer on an aluminium-containing metallic substrate of metallic aluminium or an aluminium alloy which is introduced into an alkalised aqueous reaction dispersion in which silicon and optionally aluminium are contained as network-forming elements, wherein, irrespective of whether aluminium is present in the aqueous reaction dispersion or not, the molar ratio between the aluminium in the aqueous reaction dispersion and the total of the network-forming elements contained in the aqueous reaction dispersion is below 0.5, wherein when aluminium is not present in the aqueous reaction solution the sub-stoichiometric molar ratio is 0, and the alkalised aqueous reaction dispersion which contains the aluminium-containing metallic substrate is heated and aluminium is removed from the aluminium-containing metallic substrate for the alumosilicate zeolite formation process and the layer of an alumosilicate zeolite is formed on the aluminium-containing metallic substrate by in situ crystallisation, characterised in that an aluminium complexing agent with O anchor atoms which constitutes an organic polyacid or the salt thereof is incorporated in the alkalised aqueous reaction dispersion.
A goods lift for a goods transfer device of an automatic goods storage system for receiving goods from a conveying device of the goods transfer device and transferring them to handling device of the goods transfer device , the handling device preferably being arranged above the conveying device , comprising a lift cage having a lift cage bottom for transport of the goods, and a lift cage guide , wherein a pusher is arranged at an opening in the lift cage guide , said pusher being adapted to push goods arranged on the conveyor device into the lift cage positioned in a first end position, characterized in that , in a closed position of the pusher , the pusher at least partially closes the opening in the lift cage guide comprising a lift cage having a lift cage bottom for transport of the goods, and a lift cage guide , wherein a pusher is arranged at an opening in the lift cage guide , said pusher being adapted to push goods arranged on the conveyor device into the lift cage positioned in a first end position, characterized in that , in a closed position of the pusher , the pusher at least partially closes the opening in the lift cage guide
A method operational in a service provider, SP, network connected to a wireless communication network, comprising: authenticating a user equipment, UE, to an online sign up, OSU, component of the SP network using a preconfigured UE certificate, wherein a private key corresponding to the UE certificate is available only in secure processing during authentication within the UE; and forwarding the UE certificate from the OSU component to an authentication component of the SP network for subsequent authentication of the UE based on the UE certificate. authenticating a user equipment, UE, to an online sign up, OSU, component of the SP network using a preconfigured UE certificate, wherein a private key corresponding to the UE certificate is available only in secure processing during authentication within the UE; and forwarding the UE certificate from the OSU component to an authentication component of the SP network for subsequent authentication of the UE based on the UE certificate.
Device for treating packaging means by applying fitting features or fittings to the packaging means , in particular for printing the packaging means , preferably in multicoloured print, with a packaging-means transport section , on which the packaging means are moved for treatment in a transport direction (A) from a packaging-means inlet (1.1) to a packaging-means outlet (1.2), wherein the packaging-means transport section is formed by at least one transport and treatment element which can be driven so as circulate about a vertical machine axis (MA) and has a plurality of treatment positions with holding and centring units for holding, centring, aligning, and/or moving, for example, rotating or pivoting the packaging means at the treatment positions during the treatment, wherein the holding and centring units are configured in each case at least as of two parts, and consisting specifically of at least one primary part , held during the treatment at the respective treatment position , and a secondary part , at which are provided at least the function elements required for the centring, alignment, and/or controlled movement of the packaging means during their treatment, wherein the secondary part is mounted at or in the primary part such as to be able to circulate about a vertical axis (DA) of the respective holding and centring unit , and can be driven by a motor for the alignment and/or the controlled movement of the packaging means during their treatment, characterised in that assigned to the primary parts are a plurality of secondary parts (20b-20g) adjusted to the different types, shapes, and/or sizes of the packaging means, such that the packaging means can be fixed in each case to a reception and foot part (20.1), which is detachably connected to the secondary part of the respective holding and centring unit , such that, for the processing of packaging means of different types and/or shapes and/or sizes, the reception and foot parts (20.1) can be exchanged at the holding and centring units for others which in each case are adjusted so as to fit.