mhurhangee/ep-ind-claims huggingface dataset:
A rechargeable battery comprising a case having a recess defined by a wall of the case and, an electrode assembly (10,51) disposed within said recess, the electrode assembly (10,51) being placed in said recess through an opening in the upper end of the case, wherein the case includes a heat dissipating flange formed along a circumference of the recess and that extends outwardly from an upper end of said wall in a first direction to disspate heat generated by the battery, wherein the electrode assembly (10,51) comprises a plurality of positive electrodes (11,51a) and negative electrodes (12,51b)alternately stacked with separators disposed therebetween, and in that a cover is attached to said heat dissipating flange to extend across and seal the opening, characterised in that the cover is a film and in that the case comprises a plate extending from at least a portion of said heat dissipating flange in a second direction, and a heat dissipating fin protruding from said heat dissipating flange parallel to said plate.
An ophthalmic lens edging machine, comprising a computer system having: a processor; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution by the processor, characterized in that they cause the computer system to: receive an edger code comprising data associated with a requested edging job, the edger code comprising a plurality of characters, wherein each character is associated with a different feature of the requested edging job; determine a total weight for the edger code based upon weights of each individual character; and select an edging process macro based upon the total weight of the edger code. a processor; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution by the processor, characterized in that they cause the computer system to: receive an edger code comprising data associated with a requested edging job, the edger code comprising a plurality of characters, wherein each character is associated with a different feature of the requested edging job; determine a total weight for the edger code based upon weights of each individual character; and select an edging process macro based upon the total weight of the edger code. receive an edger code comprising data associated with a requested edging job, the edger code comprising a plurality of characters, wherein each character is associated with a different feature of the requested edging job; determine a total weight for the edger code based upon weights of each individual character; and select an edging process macro based upon the total weight of the edger code.
A Steviol Glycoside of the formula III, VII, VIII, IX and X: wherein R 1 and R 2 are a sugar chain defined in the next table; No. R 1 R 2 III B-glc-B-glc(3→1) VII B-glc-α-rha(2→1) VIII IX X
A method comprising: (a) providing a first solution of a polyfunctional aziridine component in a non-reactive solvent; and (b) applying the solution to a proteinaceous substrate selected from the group consisting of fingernails, toenails and livestock hooves; wherein said polyfunctional aziridine component comprises at least one compound having two or more aziridine moieties. (a) providing a first solution of a polyfunctional aziridine component in a non-reactive solvent; and (b) applying the solution to a proteinaceous substrate selected from the group consisting of fingernails, toenails and livestock hooves;
A method of generating an optical coherence tomography, OCT, image performed by an OCT system, the method comprising: obtaining an interference signal for a reference surface; generating a first image comprising a three-dimensional image of the reference surface from the interference signal for the reference surface; selecting a first pixel set from pixels on an x-y plane of the three-dimensional image based on strength of the interference signal corresponding to each pixel; extracting for the first pixel set, differences in relative depth position between a peak point in the three-dimensional image of the reference surface and points other than the peak point in the three-dimensional image of the reference surface; calculating a coherence gate curvature, CGC, profile by using the differences extracted for the first pixel set; and generating a CGC fitting curve from the CGC profile. obtaining an interference signal for a reference surface; generating a first image comprising a three-dimensional image of the reference surface from the interference signal for the reference surface; selecting a first pixel set from pixels on an x-y plane of the three-dimensional image based on strength of the interference signal corresponding to each pixel; extracting for the first pixel set, differences in relative depth position between a peak point in the three-dimensional image of the reference surface and points other than the peak point in the three-dimensional image of the reference surface; calculating a coherence gate curvature, CGC, profile by using the differences extracted for the first pixel set; and generating a CGC fitting curve from the CGC profile.
A selective data transmission method based on a central monitoring system comprising a central station, at least one monitor, and at least one wireless sensor, wherein the method comprises the following steps of: A) the wireless sensor collecting data; B) the wireless sensor sending the data to a designated receiving end, the designated receiving end being the central station or a monitor; C) the wireless sensor selecting a receiving end according to an instruction of the central station, and taking the receiving end as the designated receiving end; D) the wireless sensor establishing a wireless connection with the designated receiving end; and E) the wireless sensor returning to execute step A); wherein judging whether a bedside monitoring instruction of the central station is received in step C); if yes, then executing a bedside monitoring mode step; otherwise, executing a central monitoring mode step; wherein the bedside monitoring mode step comprising the following steps of: C1) the wireless sensor establishing a wireless connection with the monitor, and taking the monitor as the designated receiving end; and C2) the wireless sensor returning to execute step A); the central monitoring mode step comprising the following steps of: judging whether a central monitoring instruction of the central station is received in step C); if yes, then executing CC1) step; otherwise, returning to execute step A); CC1) the wireless sensor establishing a wireless connection with the central station, and taking the central station as the designated receiving end; and CC2) the wireless sensor returning to execute step A); wherein in the step B), if the designated receiving end is the monitor, then after the wireless sensor sends the data to the monitor, the monitor transmits the received data to the central station. A) the wireless sensor collecting data; B) the wireless sensor sending the data to a designated receiving end, the designated receiving end being the central station or a monitor; C) the wireless sensor selecting a receiving end according to an instruction of the central station, and taking the receiving end as the designated receiving end; D) the wireless sensor establishing a wireless connection with the designated receiving end; and E) the wireless sensor returning to execute step A); C1) the wireless sensor establishing a wireless connection with the monitor, and taking the monitor as the designated receiving end; and C2) the wireless sensor returning to execute step A); CC1) the wireless sensor establishing a wireless connection with the central station, and taking the central station as the designated receiving end; and CC2) the wireless sensor returning to execute step A);
Lighting module for a household appliance, comprising at least one optical unit (13, 14, 15, 16) with at least one light source, at least one cooling element for cooling at least a part of the optical unit (13, 14, 15, 16) and at least one frame for holding at least a part of the optical unit (13, 14, 15, 16), wherein the lighting module has at least one housing for receiving at least a part of the optical unit (13, 14, 15, 16), wherein the housing has at least one connection means (112, 113) for connection to at least a part of the frame and the housing has at least one engagement means for engagement with at least a part of the cooling element, characterised in that the at least one engagement means on the housing represents a latching arm with a latching lug for engagement between two cooling fins of the cooling element.
Spinacia oleracea seeds wherein said seeds are free of pericarp and said seeds are obtainable by crossing a female Spinacia oleracea parent plant with a male Spinacia oleracea parent plant resulting in seed production by said female Spinacia oleracea parent plant, said female Spinacia oleracea parent homozygously comprises in its genome a recessive trait preventing pericarp formation on said produced seeds and harvesting Spinacia oleracea seeds free of pericarp, wherein said recessive trait preventing pericarp formation is obtainable, or is obtained from a Spinacia oleracea plant deposited at NCIMB under deposit number NCIMB 42555 on February 25, 2016.
A clutch group for power take-off for industrial vehicles comprising: - a clutch shaft that extends along an axis (X-X); - an input gear operatively connected in control to the clutch shaft; - a plurality of clutch discs comprising at least one clutch disc and at least one gear disc connected respectively to the clutch shaft and to the input gear adapted to engage each other by means of friction; - a bell supported by the clutch shaft around it and suitable to house said plurality of clutch discs; - pneumatic control means operable by means of a pressurised fluid and housed in the bell having development around the axis (X-X); wherein the clutch group is characterized by the fact that the pneumatic control means comprise: i) a main piston housed in a main thrust chamber; ii) an auxiliary piston housed in an auxiliary thrust chamber; wherein the main piston and the auxiliary piston are controllable in movement along the axis (X-X) to control the mutual engagement between the plurality of clutch discs. - a clutch shaft that extends along an axis (X-X); - an input gear operatively connected in control to the clutch shaft; - a plurality of clutch discs comprising at least one clutch disc and at least one gear disc connected respectively to the clutch shaft and to the input gear adapted to engage each other by means of friction; - a bell supported by the clutch shaft around it and suitable to house said plurality of clutch discs; - pneumatic control means operable by means of a pressurised fluid and housed in the bell having development around the axis (X-X); i) a main piston housed in a main thrust chamber; ii) an auxiliary piston housed in an auxiliary thrust chamber;
Method for forming a sign from a multilayered sheet assembly, the sheet assembly comprising a carrier layer on which a sign layer is arranged on a first side via a first adhesive layer, wherein the sheet assembly further comprises a strip layer which is arranged via a second adhesive layer in adhesively separable manner on a second side of the carrier layer, the method comprising the steps of: A) arranging the multilayered sheet assembly on a cutting device; B) arranging a peripheral cut in the sheet assembly along an outer periphery of the sign, wherein the peripheral cut is arranged through the sign layer and up to, but not through, the carrier layer; C) arranging an inner cut in the sheet assembly along a peripheral line of at least one enclosed surface area not forming part of the sign, wherein the inner cut is arranged through the sign layer and through the carrier layer and wherein the inner cut is arranged up to, but not through, the strip layer; D) separating the strip layer with adhesive retention of the at least one enclosed surface area not forming part of the sign; and E) separating the sign layer from the carrier layer such that the formed sign remains on the carrier layer. A) arranging the multilayered sheet assembly on a cutting device; B) arranging a peripheral cut in the sheet assembly along an outer periphery of the sign, wherein the peripheral cut is arranged through the sign layer and up to, but not through, the carrier layer; C) arranging an inner cut in the sheet assembly along a peripheral line of at least one enclosed surface area not forming part of the sign, wherein the inner cut is arranged through the sign layer and through the carrier layer and wherein the inner cut is arranged up to, but not through, the strip layer; D) separating the strip layer with adhesive retention of the at least one enclosed surface area not forming part of the sign; and E) separating the sign layer from the carrier layer such that the formed sign remains on the carrier layer.
A method for establishing a proxy network from a collection of nodes comprising: step a) identifying such a node collection, wherein the node collection comprises a central coordinator node (CCo), at least one first node being able to directly communicate with the central coordinator node (CCo), and at least one hidden node (E, D) that is not able to directly communicate with the central coordinator node (CCo), and wherein the central coordinator node (CCo) is aware of the hidden node/s (E, D), and step b) in relation to such an identified collection, performing the collection of steps including informing the first node of its appointment as a proxy node (PCo) for the hidden node/s) (E, D) by the central coordinator node (CCo) and establishing a dedicated bandwith allocation in a Contention Free Period by the central coordinator node (CCo) for the transmission of a periodic Proxy Beacon by the proxy node (PCo), the method characterized in that the collection of steps further includes - informing the hidden node/s (E, D) of the identity of the first node as the appointed proxy node (PCo) by the proxy node (PCo), and - starting the transmission of the Proxy Beacon by the proxy node (PCo), wherein, in order to construct the Proxy Beacon, the proxy node (PCo) changes a Central Beacon received from the central coordinator node (CCo) such that a Beacon Source MAC Address in the Central Beacon is set to a MAC Address of the proxy node (PCo). step a) identifying such a node collection, wherein the node collection comprises a central coordinator node (CCo), at least one first node being able to directly communicate with the central coordinator node (CCo), and at least one hidden node (E, D) that is not able to directly communicate with the central coordinator node (CCo), and wherein the central coordinator node (CCo) is aware of the hidden node/s (E, D), and step b) in relation to such an identified collection, performing the collection of steps including informing the first node of its appointment as a proxy node (PCo) for the hidden node/s) (E, D) by the central coordinator node (CCo) and establishing a dedicated bandwith allocation in a Contention Free Period by the central coordinator node (CCo) for the transmission of a periodic Proxy Beacon by the proxy node (PCo), - informing the hidden node/s (E, D) of the identity of the first node as the appointed proxy node (PCo) by the proxy node (PCo), and - starting the transmission of the Proxy Beacon by the proxy node (PCo), wherein, in order to construct the Proxy Beacon, the proxy node (PCo) changes a Central Beacon received from the central coordinator node (CCo) such that a Beacon Source MAC Address in the Central Beacon is set to a MAC Address of the proxy node (PCo).
A composition comprising monoclonal antibodies binding Ebola glycoprotein, said antibodies comprising: (a) a light chain variable region encoded by the nucleic acid molecule of SEQ ID No. 4 and a heavy chain variable region encoded by the nucleic acid molecule of SEQ ID No. 3; and/or (b) a light chain variable region encoded by the nucleic acid molecule of SEQ ID No. 6 and a heavy chain variable region encoded by the nucleic acid molecule of SEQ ID No. 5. (a) a light chain variable region encoded by the nucleic acid molecule of SEQ ID No. 4 and a heavy chain variable region encoded by the nucleic acid molecule of SEQ ID No. 3; and/or (b) a light chain variable region encoded by the nucleic acid molecule of SEQ ID No. 6 and a heavy chain variable region encoded by the nucleic acid molecule of SEQ ID No. 5.
A method, comprising: determining a plurality of stations to provide sounding feedback in response to a training signal sequence; generating a first communication frame to include respective identifiers of the plurality of stations that are to provide sounding feedback, the respective identifiers including a first identifier of a first station that is permitted to transmit sounding feedback at a defined time period after an end of the training signal sequence; generating a second communication frame to include the training sequence; causing the first communication frame to be transmitted; causing the second communication frame to be transmitted; receiving sounding feedback from the first station; and after receiving sounding feedback from the first station, causing one or more polling frames (776, 782) to be transmitted to one or more second stations, among the plurality of stations, to prompt the one or more second stations to transmit sounding feedback. determining a plurality of stations to provide sounding feedback in response to a training signal sequence; generating a first communication frame to include respective identifiers of the plurality of stations that are to provide sounding feedback, the respective identifiers including a first identifier of a first station that is permitted to transmit sounding feedback at a defined time period after an end of the training signal sequence; generating a second communication frame to include the training sequence; causing the first communication frame to be transmitted; causing the second communication frame to be transmitted; receiving sounding feedback from the first station; and after receiving sounding feedback from the first station, causing one or more polling frames (776, 782) to be transmitted to one or more second stations, among the plurality of stations, to prompt the one or more second stations to transmit sounding feedback.
A composition, at least comprising a) complexes of polythiophene and polyanions, wherein the complexes are complexes of poly(3,4-ethylenedioxythiophene) and polystyrenesulphonic acid (PEDOT/PSS), b) at least one lithium-containing compound, wherein the at least one lithium-containing compound is selected from the group consisting of LiCoO 2, LiNiO 2, LiNi 1-x Co x O 2, LiNi 0.85 Co 0.1 Al 0.05 O 2, LiNi 0.33 Mn 0.33 O 2, LiMn 2 O 4, LiFePO 4, Li 3 V 2 (PO 4) 3, LiMnPO 4, LiV 3 O 8 or mixtures of at least two of these, and c) at least one solvent, wherein the composition comprises less than 1 g of a material comprising elemental carbon, based on 1 g of the polythiophenes, or comprises no material at all comprising elemental carbon, wherein the material comprising elemental carbon is a material which has a carbon content of at least 80 wt.%. a) complexes of polythiophene and polyanions, wherein the complexes are complexes of poly(3,4-ethylenedioxythiophene) and polystyrenesulphonic acid (PEDOT/PSS), b) at least one lithium-containing compound, wherein the at least one lithium-containing compound is selected from the group consisting of LiCoO 2, LiNiO 2, LiNi 1-x Co x O 2, LiNi 0.85 Co 0.1 Al 0.05 O 2, LiNi 0.33 Mn 0.33 O 2, LiMn 2 O 4, LiFePO 4, Li 3 V 2 (PO 4) 3, LiMnPO 4, LiV 3 O 8 or mixtures of at least two of these, and c) at least one solvent, wherein the composition comprises less than 1 g of a material comprising elemental carbon, based on 1 g of the polythiophenes, or comprises no material at all comprising elemental carbon, wherein the material comprising elemental carbon is a material which has a carbon content of at least 80 wt.%.
A tension member for an elevator system, comprising a plurality of load carrying fibers, characterised in that the plurality of load carrying fibers include at least 50% aromatic polyester based fibers, and the plurality of load carrying fibers further includes one or more of carbon fibers, glass fibers, ultrahigh molecular weight polyethylene fibers, ultrahigh molecular weight polypropylene, polybenzoxazole fibers or nylon fibers.
A method of a curing treatment of pre-coated steel sheet, the method comprising the steps of: (a) forming a coating layer by coating a surface of a steel sheet with a paint composition; (b) performing primary curing on the coating layer by heating within a temperature range of 180°C to 300°C; (c) molding the steel sheet having the primarily cured coating layer formed thereon by mechanical processing; and (d) performing secondary curing on the molded steel sheet by heating within a temperature range of 140°C to 200°C to recover physical properties of the coating layer damaged in the molding; wherein the primary curing of step (b) is performed for a time range of 10 seconds to 5 minutes and the secondary curing of step (d) is performed for a time range of 5 minutes to 50 minutes; wherein the paint composition comprises one or more binder resins selected from the group consisting of a polyester resin, an alkyd resin, an acryl resin, and a modified resin thereof, and a hardener including one or more selected from an isocyanate group and one or more selected from a melamine group; and wherein a hydroxyl group value of the binder resin is in a range of 5 mgKOH/g to 100 mgKOH/g. (a) forming a coating layer by coating a surface of a steel sheet with a paint composition; (b) performing primary curing on the coating layer by heating within a temperature range of 180°C to 300°C; (c) molding the steel sheet having the primarily cured coating layer formed thereon by mechanical processing; and (d) performing secondary curing on the molded steel sheet by heating within a temperature range of 140°C to 200°C to recover physical properties of the coating layer damaged in the molding;
A computer-implemented method for providing a token to a client computer based on TPM key attestation, the method comprising: receiving, at a server, a token request from a client computer, wherein the token request includes a key attestation claim and an endorsement key certificate; wherein the method is characterised by: providing, by the server, a single response to the client computer for the token request by: verifying the key attestation claim; generating a secret in response to verifying the token request; encrypting the token for the client with the secret to form an encrypted token; encrypting the secret with a TPM public endorsement key, extracted from the key attestation claim, to form an encrypted secret; and sending the encrypted token with the encrypted secret to the client computer. verifying the key attestation claim; generating a secret in response to verifying the token request; encrypting the token for the client with the secret to form an encrypted token; encrypting the secret with a TPM public endorsement key, extracted from the key attestation claim, to form an encrypted secret; and sending the encrypted token with the encrypted secret to the client computer.