mhurhangee/ep-ind-claims huggingface dataset:
A lithium-ion battery cell (500, 600), comprising: at least two working electrodes (501, 502; 601, 602), each including an active material (504, 604), an inert material, an electrolyte and a current collector (507, 607); a first separator region (503, 603) arranged between the at least two working electrodes to separate the at least two working electrodes so that none of the working electrodes are electronically connected within the cell; wherein the at least two working electrodes include a negative electrode (501, 601) and a positive electrode (502, 602); an auxiliary electrode (509, 609); a second separator region (508, 608) arranged between the auxiliary electrode (509, 609) and the at least two working electrodes (501, 502; 601, 602) to separate the auxiliary electrode from the working electrodes so that none of the working electrodes is electronically connected to the auxiliary electrode within the cell; and a battery management system (515, 615) configured to determine a rate of transfer of lithium from the auxiliary electrode to one of the working electrodes, and to the auxiliary electrode from the working electrodes; characterized in that: the auxiliary electrode is arranged such that a distal end of the negative electrode and a distal end of the positive electrode are each directly separated from the auxiliary electrode by the second separator region (508, 608). at least two working electrodes (501, 502; 601, 602), each including an active material (504, 604), an inert material, an electrolyte and a current collector (507, 607); a first separator region (503, 603) arranged between the at least two working electrodes to separate the at least two working electrodes so that none of the working electrodes are electronically connected within the cell; wherein the at least two working electrodes include a negative electrode (501, 601) and a positive electrode (502, 602); an auxiliary electrode (509, 609); a second separator region (508, 608) arranged between the auxiliary electrode (509, 609) and the at least two working electrodes (501, 502; 601, 602) to separate the auxiliary electrode from the working electrodes so that none of the working electrodes is electronically connected to the auxiliary electrode within the cell; and a battery management system (515, 615) configured to determine a rate of transfer of lithium from the auxiliary electrode to one of the working electrodes, and to the auxiliary electrode from the working electrodes; characterized in that: the auxiliary electrode is arranged such that a distal end of the negative electrode and a distal end of the positive electrode are each directly separated from the auxiliary electrode by the second separator region (508, 608).
A magnetic head for a magnetic detector for detecting metal particles in a hydraulic circuit comprising an axial body internally comprising at least one magnet (15, 16), at least a first electrode (17, 18) defining an air gap zone located in the magnetic field created by the magnet, such that the circuit creates a particle alignment zone in the air gap, and means for electrically connecting the electrodes, characterized in that the magnet (15, 16; 35) is a diametrically magnetized magnet.
A roller carriage for the reception of a sliding door, including a roller module for the displaceable mounting to a roller running track and a basic body for the attachment to the sliding door, wherein the basic body is movably supported along a direction of gravitational force for a justifying movement at the roller module, wherein a first adjusting means is movably supported at the basic body for an adjusting movement, wherein the first adjusting means is in operative connection with a second adjusting means of the roller module for a movement of the basic body along the direction of gravitational force in relation to the roller module when performing the adjusting movement, wherein the first adjusting means includes a contacting section, and the second adjusting means includes a counter-contacting section, wherein the contacting section contacts the counter-contacting section for forming the operative connection between the first adjusting means and the second adjusting means, wherein the counter-contacting section is configured as a inclined plane, characterized in that the contacting section includes at least partially a cambered surface.
Method for the continuous production of a liquid mixed product from at least one liquid base component and at least one liquid additive component, which is added to the base component in a metered manner by means of a mixing system, wherein the mixed product is delivered by way of a product line, connected to the base of the function chamber (2.3), in which at least one mixing element is provided, with a pump and a flowmeter, to a filling machine for the filling of bottles or other containers with this mixed product, wherein the function chamber (2.3) serves as a mixing chamber and simultaneously also as a buffer storage space, wherein the filling machine and the mixing system are constituent parts of a complete filling line, wherein the metered delivery of the at least one liquid additive component to the base component takes place depending on the amount of the mixed product removed from the mixing chamber of the function chamber (2.3), and wherein the metered delivery of the at least one liquid additive component into the mixing chamber of the function chamber (2.3) takes place continuously.
A device-to-device communication method, wherein the method comprises: determining, by a terminal device, a first resource, wherein the first resource is some time-frequency resources in a first resource set, the first resource set is all time-frequency resources that can be used to detect a first transmission resource, and the first transmission resource is a spectrum resource used to transmit first data; and performing, by the terminal device, detection for the first transmission resource in the first resource, wherein the determining, by a terminal device, a first resource comprises: determining, by the terminal device, a target numerical value based on indication by the network device, wherein the target numerical value is used to indicate a time-domain location of the first resource in the first resource set; and determining, by the terminal device, the first resource based on the target numerical value; wherein at least one of a time-domain size, time-domain location, and a frequency-domain width of the first transmission resource is based on related parameters of detection results in some preceding resources in the first resource set. determining, by a terminal device, a first resource, wherein the first resource is some time-frequency resources in a first resource set, the first resource set is all time-frequency resources that can be used to detect a first transmission resource, and the first transmission resource is a spectrum resource used to transmit first data; and performing, by the terminal device, detection for the first transmission resource in the first resource, wherein the determining, by a terminal device, a first resource comprises: determining, by the terminal device, a target numerical value based on indication by the network device, wherein the target numerical value is used to indicate a time-domain location of the first resource in the first resource set; and determining, by the terminal device, the first resource based on the target numerical value; wherein at least one of a time-domain size, time-domain location, and a frequency-domain width of the first transmission resource is based on related parameters of detection results in some preceding resources in the first resource set. determining, by the terminal device, a target numerical value based on indication by the network device, wherein the target numerical value is used to indicate a time-domain location of the first resource in the first resource set; and determining, by the terminal device, the first resource based on the target numerical value; wherein at least one of a time-domain size, time-domain location, and a frequency-domain width of the first transmission resource is based on related parameters of detection results in some preceding resources in the first resource set.
A surgical stapling device, comprising: an end effector including an anvil jaw member and a staple cartridge jaw member coupled to one another, the anvil jaw member and the staple cartridge jaw member being relatively movable such that the end effector is movable between an open position and a clamped position; a staple cartridge having staple pockets in the staple cartridge jaw member; staples in the staple pockets of the staple cartridge, and characterized by the staples being formed of a metal having a cathodic potential; and by a metal coating having an anodic potential on the anvil jaw member. an end effector including an anvil jaw member and a staple cartridge jaw member coupled to one another, the anvil jaw member and the staple cartridge jaw member being relatively movable such that the end effector is movable between an open position and a clamped position; a staple cartridge having staple pockets in the staple cartridge jaw member; staples in the staple pockets of the staple cartridge, and characterized by the staples being formed of a metal having a cathodic potential; and by a metal coating having an anodic potential on the anvil jaw member.
An HPLC apparatus comprising a detector cell, a separation column and a counter-current heat exchanger, the detector cell or the separation column being disposed downstream of the heat exchanger for receiving a temperature regulated liquid from the heat exchanger, characterised in that the heat exchanger includes an upper block defining an inlet port and an outlet port for a first fluidic path, and a lower block defining an inlet port and an outlet port for a second counter fluidic path disposed adjacent to the first fluidic path, the heat exchanger further includes an upper etched foil defining the first fluidic path, a lower etched foil defining the second fluidic path, and an intermediate foil disposed between the upper and lower etched foils (1321, 1322) for defining walls for the first and second fluidic paths, and the upper and lower blocks (1311, 1312), the upper and lower etched foils (1321, 1322) and the intermediate foil are formed from titanium and diffusion bonded to one another.
An aircraft transparency, comprising: a stretched acrylic ply having a first major surface and a second major surface; a topcoat formed over at least a portion of the first major surface of the ply and comprising a polysiloxane material comprising the reaction product of: (a) a hybrid copolymer comprising: (i) a first monomer comprising a hydroxy functional organoacrylate; and (ii) a second monomer comprising an organoalkoxysilane; and (b) a second material comprising an organoalkoxysilane; and an overcoat formed over at least a portion of the topcoat and comprising a silicon oxycarbide coating. a stretched acrylic ply having a first major surface and a second major surface; a topcoat formed over at least a portion of the first major surface of the ply and comprising a polysiloxane material comprising the reaction product of: (a) a hybrid copolymer comprising: (i) a first monomer comprising a hydroxy functional organoacrylate; and (ii) a second monomer comprising an organoalkoxysilane; and (b) a second material comprising an organoalkoxysilane; and (a) a hybrid copolymer comprising: (i) a first monomer comprising a hydroxy functional organoacrylate; and (ii) a second monomer comprising an organoalkoxysilane; and (i) a first monomer comprising a hydroxy functional organoacrylate; and (ii) a second monomer comprising an organoalkoxysilane; and (b) a second material comprising an organoalkoxysilane; and an overcoat formed over at least a portion of the topcoat and comprising a silicon oxycarbide coating.
A polypropylene composition comprising: - a 95 wt% to 60 wt% of branched polypropylene by weight of the composition, the branched polypropylene having a branching index g'(vis) of 0.98, or 0.97, or 0.96 or less, a melt flow rate (230°C/2.16 kg) within a range from 0.1 g/10 min to 20 g/10 min, a melt strength of at least 20 cN determined by extensional rheology at 190°C, and an Mw/Mn of at least 5, and; - within a range from 5 wt% to 40 wt% of a low molecular weight polyolefin by weight of the composition, the low molecular weight polyolefin having a weight average molecular weight of no more than 100,000 g/mole, and a melt flow rate (ASTM D1238, 230°C/2.16 kg) of at least 50 g/10 min and a Mw/Mn of less than 5. - a 95 wt% to 60 wt% of branched polypropylene by weight of the composition, the branched polypropylene having a branching index g'(vis) of 0.98, or 0.97, or 0.96 or less, a melt flow rate (230°C/2.16 kg) within a range from 0.1 g/10 min to 20 g/10 min, a melt strength of at least 20 cN determined by extensional rheology at 190°C, and an Mw/Mn of at least 5, and; - within a range from 5 wt% to 40 wt% of a low molecular weight polyolefin by weight of the composition, the low molecular weight polyolefin having a weight average molecular weight of no more than 100,000 g/mole, and a melt flow rate (ASTM D1238, 230°C/2.16 kg) of at least 50 g/10 min and a Mw/Mn of less than 5.
A method, performed by a terminal, of transmitting or receiving a signal, the method comprising: receiving downlink control information regarding at least one transport blocks in a physical downlink shared channel (PDSCH); determining a sum of a number of bits in TBs transmitted in a slot of each serving cell among configured serving cells, based on the downlink control information; determining a data rate of the each serving cell based on dividing the sum of the number of the bits of the each serving cell by length of the slot of the each serving cell; determining total data rate for the configured serving cells based on summation of the data rate of the each serving cell; and determining whether to handle PDSCH transmission in the slot of said each serving cell, based on a result of a comparison between maximum data rate of the terminal and the determined total data rate. receiving downlink control information regarding at least one transport blocks in a physical downlink shared channel (PDSCH); determining a sum of a number of bits in TBs transmitted in a slot of each serving cell among configured serving cells, based on the downlink control information; determining a data rate of the each serving cell based on dividing the sum of the number of the bits of the each serving cell by length of the slot of the each serving cell; determining total data rate for the configured serving cells based on summation of the data rate of the each serving cell; and determining whether to handle PDSCH transmission in the slot of said each serving cell, based on a result of a comparison between maximum data rate of the terminal and the determined total data rate.
An antenna structure, comprising: a grounding element (10, 30), wherein one edge of the grounding element (10, 30) comprises a notch (101, 301); and an antenna element (11, 31, 41, 51), disposed in the notch (101, 301) of the grounding element (10, 30), the antenna element (11,31,41,51) comprising: a feeding portion, comprising: a first segment, a first end of the first segment being a feeding end of the antenna element (11, 31, 41, 51); a second segment, coupled to a second end of the first segment, wherein the second segment is extended along a direction vertical to the first segment; and a third segment, a first end of the third segment coupled to the second segment, wherein the first segment, the second segment, and the third segment form an U shape; and a shorting portion, comprising a first shorting segment and a second shorting segment; wherein there is a first coupling gap between the second segment of the feeding portion and the first shorting segment of the shorting portion and there is a second coupling gap between the third segment of the feeding portion and the second shorting segment of the shorting portion which includes a shorting end, the shorting end being connected to the grounding element, characterized in that the second end of the third segment being an open end, and the first coupling gap includes an open end of the first shorting segment. a grounding element (10, 30), wherein one edge of the grounding element (10, 30) comprises a notch (101, 301); and an antenna element (11, 31, 41, 51), disposed in the notch (101, 301) of the grounding element (10, 30), the antenna element (11,31,41,51) comprising: a feeding portion, comprising: a first segment, a first end of the first segment being a feeding end of the antenna element (11, 31, 41, 51); a second segment, coupled to a second end of the first segment, wherein the second segment is extended along a direction vertical to the first segment; and a third segment, a first end of the third segment coupled to the second segment, wherein the first segment, the second segment, and the third segment form an U shape; and a first segment, a first end of the first segment being a feeding end of the antenna element (11, 31, 41, 51); a second segment, coupled to a second end of the first segment, wherein the second segment is extended along a direction vertical to the first segment; and a third segment, a first end of the third segment coupled to the second segment, wherein the first segment, the second segment, and the third segment form an U shape; and a shorting portion, comprising a first shorting segment and a second shorting segment; wherein there is a first coupling gap between the second segment of the feeding portion and the first shorting segment of the shorting portion and there is a second coupling gap between the third segment of the feeding portion and the second shorting segment of the shorting portion which includes a shorting end, the shorting end being connected to the grounding element, characterized in that the second end of the third segment being an open end, and the first coupling gap includes an open end of the first shorting segment.
A conveyance system for conveying an article to be conveyed comprising: a rotor section having a disc-shaped rotor body that is rotatable about a first axis and a table that integrally rotates at an outer peripheral edge of the rotor body; a rotation mechanism having a rotary drive section that is mounted in the table and a transmission section that transmits rotary drive power for driving the rotary drive section; characterized in that it further comprises a puck having a first puck member that can accommodate the article to be conveyed in an upper portion, a second puck member that contacts an inner periphery of the first puck member in a vertically movable manner and in a lower portion of which the transmission section is inserted, and a pusher member that contacts an inner periphery of the second puck member in a vertically movable manner and on which the article to be conveyed is placed, and being rotatable about a second axis by the rotation mechanism; and a lift mechanism having an arm, one end of which is supported by the rotor body in the vertically movable manner, and the other end of which is used to place the first puck member thereon and supports the second puck member. a rotor section having a disc-shaped rotor body that is rotatable about a first axis and a table that integrally rotates at an outer peripheral edge of the rotor body; a rotation mechanism having a rotary drive section that is mounted in the table and a transmission section that transmits rotary drive power for driving the rotary drive section; characterized in that it further comprises a puck having a first puck member that can accommodate the article to be conveyed in an upper portion, a second puck member that contacts an inner periphery of the first puck member in a vertically movable manner and in a lower portion of which the transmission section is inserted, and a pusher member that contacts an inner periphery of the second puck member in a vertically movable manner and on which the article to be conveyed is placed, and being rotatable about a second axis by the rotation mechanism; and a lift mechanism having an arm, one end of which is supported by the rotor body in the vertically movable manner, and the other end of which is used to place the first puck member thereon and supports the second puck member.
A method for establishing a "zero-knowledge" connection between a computer and an electronic device, characterised in that a configuration device is used, which can be connected to a computer for the purpose of data communication, and which comprises its own CPU, own storage means and software as well as a "trusted execution environment", wherein at the beginning of the process the configuration device is connected to the computer, and subsequently a webserver reachable only by means of an emulated Ethernet port is started in the configuration device by means of the trusted execution environment, wherein subsequently a secure network connection to a server is established by means of the configuration device and, using the secure network connection, the required information for connection to the electronic devices, to which a connection can be established, is synchronised with the trusted execution environment of the configuration device, wherein following synchronisation by means of the webserver, an electronic device is selected via input means of the computer, to which a connection is established by means of the SSH protocol via the trusted execution environment of the configuration device, using the stored synchronised information, wherein predefined maintenance or configuration steps can be performed under menu control by means of the webserver.
Vacuum processing system for processing a substrate, with an enclosure for carrying the substrate to be treated in a substrate plane, whereby the enclosure comprises a first reflecting means and a heating means having a first plane surface and an opposed second plane surface, the heating means is configured for irradiating heating energy only via the first surface and via the second surface, the first reflecting means is configured for reflecting the heating energy irradiated by the heating means onto the substrate plane, the heating means is arranged and configured such that the first surface faces towards the first reflecting means for irradiating the substrate by reflection occurring from the reflecting means, the heating means is arranged and configured such that the second surface faces towards the substrate plane for directly irradiating the substrate, characterized in that the heating means comprises a plurality of rectangular heating elements each having a length (c), a width (a) and a thickness (b) the heating elements are electrically connected in series and/or in parallel, and the heating elements are arranged along their widths (a) and lengths (c) in a plane parallel to the substrate plane forming the first plane surface respectively the second plane surface of the heating means.