mhurhangee/ep-ind-claims huggingface dataset:
A device (40, 40a) for monitoring a common mode voltage between a power conversion device and an energy storage device, the device comprising: an input end connected to a node between the energy storage device and the power conversion device; a voltage divider (412a, 412b) configured to divide a voltage applied to the input end; a comparator (413a, 413b; 413c1, 413c2, 413d1, 413d2) configured to compare an output of the voltage divider and a reference voltage (Vref1); and a controller configured to detect an abnormality in a voltage applied from the power conversion device to the energy storage device based on an output of the comparator; characterized in that the input end is provided with a terminal for measuring a voltage (Vp) of a cathode line and a terminal for measuring a voltage (Vn) of an anode line between the energy storage device and the power conversion device; wherein the voltage divider comprises a first voltage divider configured to divide the voltage of the cathode line and a second voltage divider configured to divide the voltage of the anode line; wherein the comparator comprises a first comparator (413a; 413c1) configured to compare the voltage obtained by dividing the voltage of the cathode line by the first voltage divider with the reference voltage, and a second comparator (413b; 413d1) configured to compare the voltage obtained by dividing the voltage of the anode line by the second voltage divider with the reference voltage; wherein the controller is configured to detect an abnormality based on the outputs of both comparators. an input end connected to a node between the energy storage device and the power conversion device; a voltage divider (412a, 412b) configured to divide a voltage applied to the input end; a comparator (413a, 413b; 413c1, 413c2, 413d1, 413d2) configured to compare an output of the voltage divider and a reference voltage (Vref1); and a controller configured to detect an abnormality in a voltage applied from the power conversion device to the energy storage device based on an output of the comparator; characterized in that the input end is provided with a terminal for measuring a voltage (Vp) of a cathode line and a terminal for measuring a voltage (Vn) of an anode line between the energy storage device and the power conversion device; wherein the voltage divider comprises a first voltage divider configured to divide the voltage of the cathode line and a second voltage divider configured to divide the voltage of the anode line; wherein the comparator comprises a first comparator (413a; 413c1) configured to compare the voltage obtained by dividing the voltage of the cathode line by the first voltage divider with the reference voltage, and a second comparator (413b; 413d1) configured to compare the voltage obtained by dividing the voltage of the anode line by the second voltage divider with the reference voltage; wherein the controller is configured to detect an abnormality based on the outputs of both comparators.
A polarizing plate, comprising: a polarizer; and a pressure-sensitive adhesive layer that is on one surface of the polarizer and that comprises a pressure-sensitive adhesive composition, the pressure-sensitive adhesive composition comprising a block copolymer that comprises a first block, of which a glass transition temperature is 50°C or more, and a second block, of which a glass transition temperature is -30 °C or less; a multifunctional crosslinking agent capable of realizing a crosslinking structure via a reaction with the block copolymer; a multifunctional acrylate capable of realizing a separate crosslinking structure from the crosslinking structure formed by the crosslinking reaction of the multifunctional crosslinking agent with the block copolymer; and a radical initiator; wherein the pressure-sensitive adhesive composition realizes an interpenetrating polymer network by being cured; and the two crosslinking structures are not linked by a chemical bond. a polarizer; and a pressure-sensitive adhesive layer that is on one surface of the polarizer and that comprises a pressure-sensitive adhesive composition, the pressure-sensitive adhesive composition comprising a block copolymer that comprises a first block, of which a glass transition temperature is 50°C or more, and a second block, of which a glass transition temperature is -30 °C or less; a multifunctional crosslinking agent capable of realizing a crosslinking structure via a reaction with the block copolymer; a multifunctional acrylate capable of realizing a separate crosslinking structure from the crosslinking structure formed by the crosslinking reaction of the multifunctional crosslinking agent with the block copolymer; and a radical initiator; wherein the pressure-sensitive adhesive composition realizes an interpenetrating polymer network by being cured; and the two crosslinking structures are not linked by a chemical bond.
A twin-disc tribometer assembly comprising: a first sample drive shaft arranged to receive a first sample disc, a second sample drive shaft arranged to receive a second sample disc; a first drive motor configured to rotate the first drive shaft, a second drive motor arranged to rotate the second drive shaft; the first and second drive shafts configured to be positioned relative to each other such that a sample disc mounted on the first drive shaft will make a point contact with a sample disc on the second drive shaft as the drive shafts rotate; and wherein the assembly is configured to allow the shafts to rotate relative to each other in a continuous rotational motion and in reciprocating motion, wherein a motor control is provided to perform a first motor drive operation where the first and second motors drive the first and second shafts in a continuous rotational motion and to perform a second motor drive operation where the first and second motors drive the first and second shafts in a reciprocating motion relative to each other; characterized in that the second motor drive operation uses a sinusoidal drive signal of fixed magnitude and frequency, wherein the sinusoidal frequency is the same for each of the first and second motors, but the magnitude is different. a first sample drive shaft arranged to receive a first sample disc, a second sample drive shaft arranged to receive a second sample disc; a first drive motor configured to rotate the first drive shaft, a second drive motor arranged to rotate the second drive shaft;
A computing device (100, 200) for tracking an object (H, H', O1, O2) in an image stream, said computing device (100, 200) comprising a memory and a controller, wherein said controller is configured to: receive an image stream comprising at least a current and a previous image of an object (H, H', O1, O2) to be tracked; determine at least one contour line in each of the at least said previous image and said current image, wherein said contour line comprises a plurality of points (P1, P2, P1', P2'); determine and assign at least two descriptors (D1, D2, D3) to each point (P1, P2, P1', P2') by determining and assigning to each point one descriptor based on a normal (α1) of the point and one descriptor (D2, D3) based on a curvature of the point, wherein the curvature is before and/or after the corresponding point, wherein the curvature is determined based on the normal (α1) of the point, and at least one normal (α2, α3) of an adjacent point; filter out points based on the descriptors (D1, D2, D3); determine, for each point (P1', P2') which has not been filtered out in said current image, translation vectors (P1 - P1', P2 - P2', P2 - P1', P1- P2') to each point (P1, P2) which has not been filtered out in said previous image, wherein each of the translation vectors (P1 - P1', P2 - P2', P2 - P1', P1 - P2') comprises a horizontal component and a vertical component; and determine a maximum occurrence for the horizontal components and the vertical components, wherein the maximum occurrence corresponds to a translation vector of said object (H, H', O1, O2) to be tracked. receive an image stream comprising at least a current and a previous image of an object (H, H', O1, O2) to be tracked; determine at least one contour line in each of the at least said previous image and said current image, wherein said contour line comprises a plurality of points (P1, P2, P1', P2'); determine and assign at least two descriptors (D1, D2, D3) to each point (P1, P2, P1', P2') by determining and assigning to each point one descriptor based on a normal (α1) of the point and one descriptor (D2, D3) based on a curvature of the point, wherein the curvature is before and/or after the corresponding point, wherein the curvature is determined based on the normal (α1) of the point, and at least one normal (α2, α3) of an adjacent point; filter out points based on the descriptors (D1, D2, D3); determine, for each point (P1', P2') which has not been filtered out in said current image, translation vectors (P1 - P1', P2 - P2', P2 - P1', P1- P2') to each point (P1, P2) which has not been filtered out in said previous image, wherein each of the translation vectors (P1 - P1', P2 - P2', P2 - P1', P1 - P2') comprises a horizontal component and a vertical component; and determine a maximum occurrence for the horizontal components and the vertical components, wherein the maximum occurrence corresponds to a translation vector of said object (H, H', O1, O2) to be tracked.
A chemical carbon dioxide gas generator comprising: - a charge housing; - a carbon dioxide gas penetrable charge, contained in the said housing, the charge comprising a) 40-70 wt. % of a substance which upon decomposition generates carbon dioxide, which substance is selected from the group of magnesium carbonate, magnesium oxalate, calcium carbonate and calcium oxalate, b) 20-44 wt. % of an oxidiser selected from the group of sodium chlorate, potassium chlorate, lithium chlorate, other metal chlorates, sodium perchlorate, potassium perchlorate, lithium perchlorate, and other metal perchlorates, c) 1-20 wt. % of carbon, d) 1-10 wt. % inorganic binder selected from the group of water glass, mineral clays and zeolites, said components a), b), c) and d) together forming 90-100 wt. % of the total weight of the charge; - an ignition device for igniting the charge; - a carbon dioxide gas treatment unit for reducing the content of one or more side-products - which may have been formed by the charge - in the generated carbon dioxide, and/or for cooling carbon dioxide gas generated by the charge; and - an outlet for carbon dioxide gas, generated by the charge. - a charge housing; - a carbon dioxide gas penetrable charge, contained in the said housing, the charge comprising a) 40-70 wt. % of a substance which upon decomposition generates carbon dioxide, which substance is selected from the group of magnesium carbonate, magnesium oxalate, calcium carbonate and calcium oxalate, b) 20-44 wt. % of an oxidiser selected from the group of sodium chlorate, potassium chlorate, lithium chlorate, other metal chlorates, sodium perchlorate, potassium perchlorate, lithium perchlorate, and other metal perchlorates, c) 1-20 wt. % of carbon, d) 1-10 wt. % inorganic binder selected from the group of water glass, mineral clays and zeolites, said components a), b), c) and d) together forming 90-100 wt. % of the total weight of the charge; a) 40-70 wt. % of a substance which upon decomposition generates carbon dioxide, which substance is selected from the group of magnesium carbonate, magnesium oxalate, calcium carbonate and calcium oxalate, b) 20-44 wt. % of an oxidiser selected from the group of sodium chlorate, potassium chlorate, lithium chlorate, other metal chlorates, sodium perchlorate, potassium perchlorate, lithium perchlorate, and other metal perchlorates, c) 1-20 wt. % of carbon, d) 1-10 wt. % inorganic binder selected from the group of water glass, mineral clays and zeolites, - an ignition device for igniting the charge; - a carbon dioxide gas treatment unit for reducing the content of one or more side-products - which may have been formed by the charge - in the generated carbon dioxide, and/or for cooling carbon dioxide gas generated by the charge; and - an outlet for carbon dioxide gas, generated by the charge.
A continuous process for the preparation of ethylene homopolymers or ethylene copolymers comprising polymerizing ethylene or copolymerizing ethylene and one or more other olefins in the presence of a chromium catalyst in a gas-phase polymerization reactor, which contains a reactor bed of particulate polymer and which is equipped with a cycle gas line for withdrawing reactor gas from the reactor, leading the reactor gas through a heat-exchanger for cooling and feeding the reactor gas back to the reactor, wherein the polymerization is carried out at a temperature from 30°C to 130°C and a pressure of from 0.1 to 10 MPa and an aliphatic carboxylic acid ester having from 8 to 24 carbon atoms, which has a melting point of less than 20°C, is added.
Fuel injection valve for fuel injection systems of internal combustion engines, in particular for the direct injection of fuel into the combustion chamber of an internal combustion engine, having an actuator (9, 10, 13, 20), by way of the excitation of which a stroke movement of a valve needle can be realized, thus permitting an actuation of a valve closing body which, together with a valve seat surface, forms a sealing seat, and having an inflow-side fuel feed, wherein, in the fuel inflow, there is arranged a setting element for setting the spring force of a restoring spring, wherein the setting element is delimited to the outside by a sleeve, wherein a filter region with a multiplicity of through-openings is provided in the wall of the sleeve, characterized in that a throttle element is introduced in the interior of the sleeve as an independent insert, wherein the throttle element is accommodated at least partially in a radially enlarged region of the sleeve, and the sleeve is designed so as to conically project with a flare for securely receiving the throttle element, such that the throttle element, which is provided at least partially with a conical lateral surface, is received in a form-fitting manner in the region of the flare of the sleeve.
A method of operation of a client device, in a Rich Communication Services, RCS, comprising: sending (206A, 206B, 302) a single Internet Message Access Protocol, IMAP, LIST equest to a Common Message Store, CMS, server comprised in a server system, or a list of mailboxes maintained by the Common Message Store, CMS, server for a user that contain objects flagged with any of one or more flags (VVM, VVMMWI) specified in the single IMAP LIST equest; in response to the single IMAP LIST request, receiving (210A, 210B, 306), from the Common Message Store, CMS, server, the list of mailboxes maintained by the Common Message Store, CMS, server for the user that contain the objects flagged with any of the one or more flags specified in the single IMAP LIST request; and processing (212A, 212B, 308) the list of mailboxes. sending (206A, 206B, 302) a single Internet Message Access Protocol, IMAP, LIST equest to a Common Message Store, CMS, server comprised in a server system, or a list of mailboxes maintained by the Common Message Store, CMS, server for a user that contain objects flagged with any of one or more flags (VVM, VVMMWI) specified in the single IMAP LIST equest; in response to the single IMAP LIST request, receiving (210A, 210B, 306), from the Common Message Store, CMS, server, the list of mailboxes maintained by the Common Message Store, CMS, server for the user that contain the objects flagged with any of the one or more flags specified in the single IMAP LIST request; and processing (212A, 212B, 308) the list of mailboxes.
A sleeve assembly for a combustion system, said sleeve assembly comprising: a liner defining a combustion chamber including a flow axis and a primary combustion zone, said liner having a forward end and an aft end such that said liner circumscribes the flow axis; and a shell circumscribing said liner such that a cooling duct is defined between said liner and said shell, said shell comprising a unisleeve having a forward end and an aft end, the aft end of said unisleeve being positioned axially upstream of the aft end of said liner, defining a gap between the aft end of said liner and the aft end of said unisleeve; characterized in that said unisleeve is mounted to said liner via discrete, circumferentially spaced mounting elements along an axial plane between the forward end and the aft end of the unisleeve; and said shell further comprises a flow sleeve coupled to said unisleeve, said flow sleeve having a forward end and an aft end, wherein said aft end of said flow sleeve is positioned axially between said ends of said liner such that said flow sleeve overlaps a forward portion of said liner that defines the primary combustion zone of said combustion chamber. a liner defining a combustion chamber including a flow axis and a primary combustion zone, said liner having a forward end and an aft end such that said liner circumscribes the flow axis; and a shell circumscribing said liner such that a cooling duct is defined between said liner and said shell, said shell comprising a unisleeve having a forward end and an aft end, the aft end of said unisleeve being positioned axially upstream of the aft end of said liner, defining a gap between the aft end of said liner and the aft end of said unisleeve; characterized in that said unisleeve is mounted to said liner via discrete, circumferentially spaced mounting elements along an axial plane between the forward end and the aft end of the unisleeve; and said shell further comprises a flow sleeve coupled to said unisleeve, said flow sleeve having a forward end and an aft end, wherein said aft end of said flow sleeve is positioned axially between said ends of said liner such that said flow sleeve overlaps a forward portion of said liner that defines the primary combustion zone of said combustion chamber.
A method for feeding back a decoding result of early stop decoding, characterized by comprising: in a Transmit Time Interval, TTI, adjusting, by a terminal side, encoded Transport Format Combination Indicator, TFCI, bits, and sending, by a terminal side, the adjusted TFCI bits to a Node B, NodeB, side via a TFCI domain of an uplink Dedicated Physical Control Channel, DPCCH, wherein the operation of the terminal side adjusting encoded TFCI bits provides reducing the number of the encoded TFCI bits such that the number of the encoded TFCI bits is less than the number of bits of a TFCI which is obtained by a [32,10] encoding operation with 10 original TFCI bits and 32 encoded TFCI bits; in the TTI, sending by the terminal side, data on an uplink Dedicated Physical Channel, DPCH, to the NodeB side, the data being encoded according to the TFCI bits; in the TTI, after sending the adjusted TFCI bits to the NodeB side, decoding, by the terminal side, data transmitted on a downlink Dedicated Physical Channel, DPCH, by the NodeB side, and in case of successful decoding, feeding back, by the terminal side, via an idle TFCI domain of the uplink DPCCH, a decoding result of the data transmitted on the downlink DPCH to the NodeB side, wherein the decoding result is used to indicate the NodeB side to stop transmission of data on the downlink DPCH in the TTI, and wherein the idle TFCI domain of the uplink DPCCH is the rest part of TFCI domain which is rendered idle by reducing the encoded TFCI bits. in a Transmit Time Interval, TTI, adjusting, by a terminal side, encoded Transport Format Combination Indicator, TFCI, bits, and sending, by a terminal side, the adjusted TFCI bits to a Node B, NodeB, side via a TFCI domain of an uplink Dedicated Physical Control Channel, DPCCH, wherein the operation of the terminal side adjusting encoded TFCI bits provides reducing the number of the encoded TFCI bits such that the number of the encoded TFCI bits is less than the number of bits of a TFCI which is obtained by a [32,10] encoding operation with 10 original TFCI bits and 32 encoded TFCI bits; in the TTI, sending by the terminal side, data on an uplink Dedicated Physical Channel, DPCH, to the NodeB side, the data being encoded according to the TFCI bits; in the TTI, after sending the adjusted TFCI bits to the NodeB side, decoding, by the terminal side, data transmitted on a downlink Dedicated Physical Channel, DPCH, by the NodeB side, and in case of successful decoding, feeding back, by the terminal side, via an idle TFCI domain of the uplink DPCCH, a decoding result of the data transmitted on the downlink DPCH to the NodeB side, wherein the decoding result is used to indicate the NodeB side to stop transmission of data on the downlink DPCH in the TTI, and wherein the idle TFCI domain of the uplink DPCCH is the rest part of TFCI domain which is rendered idle by reducing the encoded TFCI bits.
A rack including multiple vessel holders, each vessel holder including an insert for a vessel of an automated analysis system, each insert comprising: at least one first gripping element (1; 1'; 1") configured to elastically engage with a vessel at a first position of the vessel when the vessel is being inserted into the vessel holder; at least one second gripping element (2; 2'; 2") configured to elastically engage with a vessel at a second position of the vessel when the vessel is being inserted into the vessel holder; a central portion arranged between the first and second gripping elements (1; 1'; 1";2;2';2"), wherein the inserts are releasably inserted into the rack; wherein the rack includes an upper part and a lower part which are detachably connectable, wherein the lower part comprises recesses to receive the inserts; and characterized in that: the first and second gripping elements (1; 1'; 1"; 2; 2'; 2") of each insert are attached to the central portion and each have free ends opposite to respective attachment sites to the respective central portion, wherein the rack is configured to be assembled by: in a first step, inserting a selected number of inserts in the recesses of the lower part of the rack, and in a subsequent step, coupling the upper part to the lower part carrying the inserts. at least one first gripping element (1; 1'; 1") configured to elastically engage with a vessel at a first position of the vessel when the vessel is being inserted into the vessel holder; at least one second gripping element (2; 2'; 2") configured to elastically engage with a vessel at a second position of the vessel when the vessel is being inserted into the vessel holder; a central portion arranged between the first and second gripping elements (1; 1'; 1";2;2';2"), wherein the inserts are releasably inserted into the rack; wherein the rack includes an upper part and a lower part which are detachably connectable, wherein the lower part comprises recesses to receive the inserts; and characterized in that: the first and second gripping elements (1; 1'; 1"; 2; 2'; 2") of each insert are attached to the central portion and each have free ends opposite to respective attachment sites to the respective central portion, wherein the rack is configured to be assembled by: in a first step, inserting a selected number of inserts in the recesses of the lower part of the rack, and in a subsequent step, coupling the upper part to the lower part carrying the inserts. the first and second gripping elements (1; 1'; 1"; 2; 2'; 2") of each insert are attached to the central portion and each have free ends opposite to respective attachment sites to the respective central portion, wherein the rack is configured to be assembled by: in a first step, inserting a selected number of inserts in the recesses of the lower part of the rack, and in a subsequent step, coupling the upper part to the lower part carrying the inserts. in a first step, inserting a selected number of inserts in the recesses of the lower part of the rack, and in a subsequent step, coupling the upper part to the lower part carrying the inserts.