mhurhangee/ep-ind-claims huggingface dataset:
A rapid charging system (10, 82, 94, 98) for electrically driven vehicles, in particular electric buses or the like, the rapid charging system having a contact apparatus (11, 99) and a charging contact unit (12, 89, 100), wherein the contact apparatus serves to form an electrical conductive connection between a vehicle and a stationary charging station by means of the charging contact unit, wherein the contact apparatus can be arranged on a roof of a vehicle, wherein the contact apparatus comprises a contact device (14, 83, 114), wherein the contact device can make contact with the charging contact unit, wherein the contact apparatus or the charging contact unit comprises a positioning device (15, 113), wherein the contact device can be positioned relative to the charging contact unit by means of the positioning device, wherein the contact device has a contact element support comprising contact elements (17, 84, 128), wherein the contact elements can make contact with charging contact elements (18, 90) of the charging contact unit so as to form contact pairs, characterised in that the charging contact elements are realised as conductor strips (32, 33, 34, 35, 96), wherein the contact elements are arranged on the contact element support relative to the charging contact elements in such a manner and wherein the charging contact elements are arranged on the charging contact unit relative to the contact elements in such a manner that a defined order is maintained when forming contact pairs when the contact device and the charging contact unit are joined.
Method of secure cryptographic calculation, comprising a formulation of a first list of first random quantities, a formulation of a first non-linear substitution operator masked with the aid of a part at least of the said first list, a formulation of a second list deduced from the said first list and comprising second random quantities respectively deduced from the said first random quantities, a formulation of a second non-linear substitution operator masked with the aid of a part at least of the said second list, at least two successive implementations of a cryptographic calculation algorithm comprising N rounds of calculation carried out successively to obtain an output datum on the basis of an input datum and of a secret key, the data path of the algorithm being masked, one of the two implementations comprising a masking of the data path of the algorithm involving the first list of first random quantities and the said first masked non-linear substitution operator, the other implementation comprising a masking of the data path of the algorithm involving the second list of second random quantities and the said second masked non-linear substitution operator, and after the two implementations of the algorithm, a verification of consistency between the two implementations or executions.
A method for stable long-term storage of non-glycosylated recombinant human G-CSF, said method comprising the steps of: (a) providing an aqueous acetate or glutamate buffered G-CSF composition containing a non-glycosylated recombinant human G-CSF and sorbitol, wherein the amount of G-CSF is in the range of from 0.1 mg/ml to 8.0 mg/ml and wherein said composition has a volume of from 100 ml to 8 I; (b) cooling the G-CSF-composition provided in step (a) to a temperature of -15°C or below to obtain a frozen G-CSF formulation; (c) storing the G-CSF-composition obtained in step (b) in the frozen state over a period of at least one month; and (d) increasing the temperature of the frozen G-CSF composition of step (c) to a temperature within the range of from 2°C to 8°C over a period of time adjusted to allow the composition to thaw and to obtain a liquid composition having a G-CSF content of at least 95% of the G-CSF content of the composition provided in step (a). (a) providing an aqueous acetate or glutamate buffered G-CSF composition containing a non-glycosylated recombinant human G-CSF and sorbitol, wherein the amount of G-CSF is in the range of from 0.1 mg/ml to 8.0 mg/ml and wherein said composition has a volume of from 100 ml to 8 I; (b) cooling the G-CSF-composition provided in step (a) to a temperature of -15°C or below to obtain a frozen G-CSF formulation; (c) storing the G-CSF-composition obtained in step (b) in the frozen state over a period of at least one month; and (d) increasing the temperature of the frozen G-CSF composition of step (c) to a temperature within the range of from 2°C to 8°C over a period of time adjusted to allow the composition to thaw and to obtain a liquid composition having a G-CSF content of at least 95% of the G-CSF content of the composition provided in step (a).
A pixel unit, comprising: a transistor, including a drain electrode, a source electrode and a gate electrode; a pixel electrode, including a first bottom conductive layer in contact with a surface of the drain electrode and a metal layer; a planarization layer, formed on the transistor and the first bottom conductive layer, wherein the metal layer is electrically connected to the first bottom conductive layer through a via-hole in the planarization layer; a data line connected with the source electrode; a gate line connected with the gate electrode; a second bottom conductive layer between the source electrode and the planarization layer; and a third bottom conductive layer on the gate line, wherein the material of the drain electrode and the material of the source electrode contain metal aluminum, the material of the data line and the material of the gate line contain metal aluminum, the material of the metal layer is metallic silver, and both the material of the second bottom conductive layer and the material of the first bottom conductive layer are Indium Tin Oxide; the first bottom conductive layer covers an entire top surface and all sidewalls of the drain electrode, the second bottom conductive layer covers an entire top surface and all sidewalls of the source electrode and covers the data line, and the third bottom conductive layer covers the gate line connected with the gate electrode. a transistor, including a drain electrode, a source electrode and a gate electrode; a pixel electrode, including a first bottom conductive layer in contact with a surface of the drain electrode and a metal layer; a planarization layer, formed on the transistor and the first bottom conductive layer, wherein the metal layer is electrically connected to the first bottom conductive layer through a via-hole in the planarization layer; a data line connected with the source electrode; a gate line connected with the gate electrode; a second bottom conductive layer between the source electrode and the planarization layer; and a third bottom conductive layer on the gate line, wherein the material of the drain electrode and the material of the source electrode contain metal aluminum, the material of the data line and the material of the gate line contain metal aluminum, the material of the metal layer is metallic silver, and both the material of the second bottom conductive layer and the material of the first bottom conductive layer are Indium Tin Oxide; the first bottom conductive layer covers an entire top surface and all sidewalls of the drain electrode, the second bottom conductive layer covers an entire top surface and all sidewalls of the source electrode and covers the data line, and the third bottom conductive layer covers the gate line connected with the gate electrode.
A compound represented by the formula: wherein AA is an amino acid residue which is a divalent group obtained by removing one amino group and one carboxy group from an amino acid, wherein the amino acid is selected from alanine, valine, leucine, isoleucine, serine, threonine, cysteine, methionine, glutamic acid, aspartic acid, lysine, arginine, histidine, glutamine, asparagine, phenylalanine, tyrosine, tryptophan, cystine, ornithine, thyroxin, proline, 3,4-dihydroxyphenylalanine, β-alanine, or γ-aminobutyric acid; G is a sugar residue wherein none of the hydroxyl groups are protected or modified wherein the sugar of said sugar residue is glucose, glucosamine or N-acetylglucosamine, or a salt thereof; and R is a hydrogen atom or an alkyl group, or a salt thereof, with the proviso that said compound is not: a compound wherein G is a group represented by the formula: and AA is a lysine residue or a glutamic acid residue. AA is an amino acid residue which is a divalent group obtained by removing one amino group and one carboxy group from an amino acid, wherein the amino acid is selected from alanine, valine, leucine, isoleucine, serine, threonine, cysteine, methionine, glutamic acid, aspartic acid, lysine, arginine, histidine, glutamine, asparagine, phenylalanine, tyrosine, tryptophan, cystine, ornithine, thyroxin, proline, 3,4-dihydroxyphenylalanine, β-alanine, or γ-aminobutyric acid; G is a sugar residue wherein none of the hydroxyl groups are protected or modified wherein the sugar of said sugar residue is glucose, glucosamine or N-acetylglucosamine, or a salt thereof; and R is a hydrogen atom or an alkyl group, or a salt thereof, with the proviso that said compound is not: a compound wherein G is a group represented by the formula: and AA is a lysine residue or a glutamic acid residue. a compound wherein G is a group represented by the formula: and AA is a lysine residue or a glutamic acid residue.
A method of making a waterproof floor slab element, the method comprising pouring fresh concrete mix into a mold, wherein the mold has a mold surface forming the shape of the top surface of the floor slab element, allowing the concrete mix to harden in the mold so as to form a floor slab element, removing the floor slab element from the mold, forming a surface structure on the top surface of the floor slab element which improves the adhesion of the waterproofing material, and forming a waterproofing layer on the top surface of the floor slab element, wherein said surface structure is formed by installing a porous mold fabric on the mold surface before pouring the concrete.
A connector terminal including a main body, a support leg, and a resilient portion, the main body including: a contact portion configured to make contact with one side of a male connector terminal of a male electric connector; a spring portion facing the contact portion and configured to make contact with the other side of the male connector terminal; a support portion being connected at one end portion thereof to an end of the spring portion; characterized by a space-limiter connecting a side of the contact portion to a side of the support portion to prevent a space between the contact portion and the support portion from expanding, the space extending in a length-wise direction of the contact portion and the support portion such that the space is free in both directions in the length-wise direction, the support leg being adapted to be fixed at one of ends thereof, and extending parallel to the contact portion, the resilient portion connecting the other end of the support leg and the contact portion to each other such that there is a gap between the support leg and the contact portion, and being resiliently deformable in accordance with deflection of the main body. a contact portion configured to make contact with one side of a male connector terminal of a male electric connector; a spring portion facing the contact portion and configured to make contact with the other side of the male connector terminal; a support portion being connected at one end portion thereof to an end of the spring portion; characterized by a space-limiter connecting a side of the contact portion to a side of the support portion to prevent a space between the contact portion and the support portion from expanding, the space extending in a length-wise direction of the contact portion and the support portion such that the space is free in both directions in the length-wise direction, the support leg being adapted to be fixed at one of ends thereof, and extending parallel to the contact portion, the resilient portion connecting the other end of the support leg and the contact portion to each other such that there is a gap between the support leg and the contact portion, and being resiliently deformable in accordance with deflection of the main body.
A method for demolding annular elastomeric molded parts from a mold core of an injection mold which has the inner mold core and outer mold jaws and in which the molded parts (9, 19) are produced parallel to one another in annular mold cavities of the mold core, characterized in that, after removal of the outer mold jaws, the mold core, which contains the produced elastomeric molded parts (9, 19) on the surface thereof, is set at such a high rotational speed about the longitudinal axis thereof that the internal diameter of the elastomeric molded parts (9, 19) is increased because of centrifugal force to such an extent that the molded parts (9, 19) are released from the mold cavities and can be removed from the mold core in the axial direction while still rotating.
An internal combustion engine system including an internal combustion engine equipped with a port fuel injection valve arranged to inject a fuel into an intake port and with an in-cylinder fuel injection valve arranged to directly inject the fuel into each cylinder, the internal combustion engine system comprising: a learning execution module configured to perform learning under fuel injection from the port fuel injection valve in a specified operation state of the internal combustion engine; an auto stop-permitting water temperature setting module configured to, on completion of the learning, set a first temperature to an auto stop-permitting water temperature (Tws) that allows an auto stop of the internal combustion engine, and on incompletion of the learning, set a second temperature that is higher than the first temperature to the auto stop-permitting water temperature (Tws); a cooling water temperature detection unit constructed to measure temperature (Tw) of cooling water in the internal combustion engine; and an auto stop restart controller configured to automatically stop operation of the internal combustion engine upon satisfaction of preset auto stop conditions including a condition that the measured temperature (Tw) of cooling water is not lower than the set auto stop-permitting water temperature (Tws) and to automatically restart the operation of the internal combustion engine upon satisfaction of preset auto restart conditions in an auto stop state of the internal combustion engine. a learning execution module configured to perform learning under fuel injection from the port fuel injection valve in a specified operation state of the internal combustion engine; an auto stop-permitting water temperature setting module configured to, on completion of the learning, set a first temperature to an auto stop-permitting water temperature (Tws) that allows an auto stop of the internal combustion engine, and on incompletion of the learning, set a second temperature that is higher than the first temperature to the auto stop-permitting water temperature (Tws); a cooling water temperature detection unit constructed to measure temperature (Tw) of cooling water in the internal combustion engine; and an auto stop restart controller configured to automatically stop operation of the internal combustion engine upon satisfaction of preset auto stop conditions including a condition that the measured temperature (Tw) of cooling water is not lower than the set auto stop-permitting water temperature (Tws) and to automatically restart the operation of the internal combustion engine upon satisfaction of preset auto restart conditions in an auto stop state of the internal combustion engine.
A method for managing inter-system interference performed by a network element (800; 900) in a victim cellular communication system comprising a serving cell serving a victim radio device, the method comprising: determining (S1; 110) that the downlink, DL, reception quality of signals from the serving cell at the victim radio device is below a predetermined first threshold, implying poor DL radio signal quality; determining (S2; 120) that the DL signal strength of signals from the serving cell at the victim radio device is above a predetermined second threshold, implying that the poor DL radio signal quality is due to either intra-system interference from DL signaling within said victim system, or to inter-system interference from UL signaling in an aggressor system; if the victim cellular communication system comprises at least one neighboring cell, then determining (S3; 140) whether the DL signal strength of signals from said at least one neighboring cell is below a predetermined third threshold at the victim radio device; when determining that the DL signal strength of signals from said at least one neighboring cell is below the predetermined third threshold at the victim radio device determining (S4; 160) that the poor DL radio signal quality is due to radio interference from uplink, UL, signaling in an aggressor cell comprised in an aggressor cellular communication system; and applying interference resolution for mitigating the inter-system interference from the aggressor cell. determining (S1; 110) that the downlink, DL, reception quality of signals from the serving cell at the victim radio device is below a predetermined first threshold, implying poor DL radio signal quality; determining (S2; 120) that the DL signal strength of signals from the serving cell at the victim radio device is above a predetermined second threshold, implying that the poor DL radio signal quality is due to either intra-system interference from DL signaling within said victim system, or to inter-system interference from UL signaling in an aggressor system; if the victim cellular communication system comprises at least one neighboring cell, then determining (S3; 140) whether the DL signal strength of signals from said at least one neighboring cell is below a predetermined third threshold at the victim radio device; when determining that the DL signal strength of signals from said at least one neighboring cell is below the predetermined third threshold at the victim radio device determining (S4; 160) that the poor DL radio signal quality is due to radio interference from uplink, UL, signaling in an aggressor cell comprised in an aggressor cellular communication system; and applying interference resolution for mitigating the inter-system interference from the aggressor cell.
A part comprising a substrate in which at least a portion adjacent to a surface of the substrate is made of a refractory material containing silicon, and an environmental barrier formed on the surface of the substrate and having at least a self-healing layer containing a rare earth silicate, the part being characterized in that the self-healing layer is formed: • for at least 90 mol%, by a system constituted by 30 mol% to at most 80 mol% of at least one rare earth silicate RE 2 Si 2 O 7, RE being a rare earth, and at least 20 mol% to 70 mol% of manganese oxide MnO; and • for at most 10 mol%, by one or more oxides other than MnO, having a eutectic point with SiO 2 less than or equal to 1595°C; the self-healing layer presenting a liquid phase having a self-healing function at least throughout the temperature range 1200°C to 1400°C, while conserving a majority solid phase. • for at least 90 mol%, by a system constituted by 30 mol% to at most 80 mol% of at least one rare earth silicate RE 2 Si 2 O 7, RE being a rare earth, and at least 20 mol% to 70 mol% of manganese oxide MnO; and • for at most 10 mol%, by one or more oxides other than MnO, having a eutectic point with SiO 2 less than or equal to 1595°C;
A plurality of print liquid supplies, wherein each print liquid supply comprises: a reservoir for holding a supply of print liquid, the reservoir comprising: a flat pliable body when empty; a front face and a back face; and a liquid transfer-inhibiting material; a container in which the reservoir is disposed; a spout affixed to the reservoir, wherein: the spout comprises a sleeve extending through the reservoir, and wherein the spout is located at a corner of the front face of the reservoir, adjacent to an opening of the container, and is located closer to a first wall of the reservoir than a second wall of the reservoir which is opposite to the first wall; and wherein each reservoir holds a different volume of liquid; each reservoir has a different distance between the first wall and the second wall; and the spout of each of the different reservoirs is located at the same distance from the respective first wall of the reservoir. a reservoir for holding a supply of print liquid, the reservoir comprising: a flat pliable body when empty; a front face and a back face; and a liquid transfer-inhibiting material; a flat pliable body when empty; a front face and a back face; and a liquid transfer-inhibiting material; a container in which the reservoir is disposed; a spout affixed to the reservoir, wherein: the spout comprises a sleeve extending through the reservoir, and wherein the spout is located at a corner of the front face of the reservoir, adjacent to an opening of the container, and is located closer to a first wall of the reservoir than a second wall of the reservoir which is opposite to the first wall; the spout comprises a sleeve extending through the reservoir, and wherein the spout is located at a corner of the front face of the reservoir, adjacent to an opening of the container, and is located closer to a first wall of the reservoir than a second wall of the reservoir which is opposite to the first wall; and wherein each reservoir holds a different volume of liquid; each reservoir has a different distance between the first wall and the second wall; and the spout of each of the different reservoirs is located at the same distance from the respective first wall of the reservoir.
A polymerizable liquid-crystal compound represented by the following general formula: wherein P represents a polymerizable functional group selected from the groups represented by the following formulae (P-1) to (P-5), in which R 11 to R 13 each represent a hydrogen atom or a methyl group; Sp represents a spacer or a single bond; Z 1 and Z 2 each represent -CO-O-; R 0 represents a linear alkyl group having from 1 to 15 carbon atoms; R 2, R 3 and R 4 each independently represent an alkyl group having from 1 to 4 carbon atoms, an alkoxy group having from 1 to 4 carbon atoms, an alkoxycarbonyl group having from 2 to 5 carbon atoms, an acyloxy group having from 2 to 5 carbon atoms, an acyl group having from 2 to 4 carbon atoms, an amide group having from 2 to 5 carbon atoms, a cyano group, an amino group, a hydroxyl group, or a halogen atom; r 1, r 2 and r 3 each independently indicate an integer of from 0 to 4; when r 1, r 2 and r 3 each are 2 or more, then R 2, R 3 and R 4 each may be the same or different; when R 0 is a methyl group, then r 2 is not 1. Sp represents a spacer or a single bond; Z 1 and Z 2 each represent -CO-O-; R 0 represents a linear alkyl group having from 1 to 15 carbon atoms; R 2, R 3 and R 4 each independently represent an alkyl group having from 1 to 4 carbon atoms, an alkoxy group having from 1 to 4 carbon atoms, an alkoxycarbonyl group having from 2 to 5 carbon atoms, an acyloxy group having from 2 to 5 carbon atoms, an acyl group having from 2 to 4 carbon atoms, an amide group having from 2 to 5 carbon atoms, a cyano group, an amino group, a hydroxyl group, or a halogen atom; r 1, r 2 and r 3 each independently indicate an integer of from 0 to 4; when r 1, r 2 and r 3 each are 2 or more, then R 2, R 3 and R 4 each may be the same or different; when R 0 is a methyl group, then r 2 is not 1.