mhurhangee/ep-ind-claims huggingface dataset:
System for driving at least one compressor, comprising: - an input able to be connected to a belt secured to a rotary machine, - an output able to be connected to the compressor, - an epicyclic geartrain, the annulus gear of which forms a flywheel, said annulus gear being connected to nothing other than to the planet pinion(s) with which it meshes, and the sun gear of which is notably connected to the output of the system, and - a device allowing the configuration of the epicyclic geartrain to be modified so that the latter selectively adopts at least the following configurations: - (i) a configuration in which the epicyclic geartrain is coupled to the input of the system, - (ii) a configuration in which the epicyclic geartrain has no internal degree of freedom while at the same time being uncoupled from the input of the system. - an input able to be connected to a belt secured to a rotary machine, - an output able to be connected to the compressor, - an epicyclic geartrain, the annulus gear of which forms a flywheel, said annulus gear being connected to nothing other than to the planet pinion(s) with which it meshes, and the sun gear of which is notably connected to the output of the system, and - a device allowing the configuration of the epicyclic geartrain to be modified so that the latter selectively adopts at least the following configurations: - (i) a configuration in which the epicyclic geartrain is coupled to the input of the system, - (ii) a configuration in which the epicyclic geartrain has no internal degree of freedom while at the same time being uncoupled from the input of the system. - (i) a configuration in which the epicyclic geartrain is coupled to the input of the system, - (ii) a configuration in which the epicyclic geartrain has no internal degree of freedom while at the same time being uncoupled from the input of the system.
A filter cartridge comprising: (a) first and second, opposite, flow ends; (b) media positioned to filter fluid flow between the first and second, opposite, flow ends; (c) a seal arrangement having a first axial seal housing engagement surface; (i) the first axial seal housing engagement surface including a contoured axial seal surface section having at least a first housing engagement projection/recess member thereon; (d) the seal arrangement includes a peripheral, perimeter, edge surface having a first member of a peripheral edge projection/recess contour therein; (e) the first member of the peripheral edge projection/recess contour includes a first recess member; (f) the housing projection/recess member includes a projection section positioned in a portion of the first axial seal housing engagement surface at a location in axial alignment with the first member of the peripheral projection/recess contour in the peripheral edge surface; and (g) the seal arrangement comprises a pinch seal arrangement having: the outer peripheral edge surface; and, first and second, opposite, pinch seal housing engagement surfaces (414, 415); (i) at least a selected one of the first and second, opposite, pinch seal housing engagement surfaces (414, 415) including the contoured axial seal surface section having at least the first housing engagement projection/recess member therein. (a) first and second, opposite, flow ends; (b) media positioned to filter fluid flow between the first and second, opposite, flow ends; (c) a seal arrangement having a first axial seal housing engagement surface; (i) the first axial seal housing engagement surface including a contoured axial seal surface section having at least a first housing engagement projection/recess member thereon; (i) the first axial seal housing engagement surface including a contoured axial seal surface section having at least a first housing engagement projection/recess member thereon; (d) the seal arrangement includes a peripheral, perimeter, edge surface having a first member of a peripheral edge projection/recess contour therein; (e) the first member of the peripheral edge projection/recess contour includes a first recess member; (f) the housing projection/recess member includes a projection section positioned in a portion of the first axial seal housing engagement surface at a location in axial alignment with the first member of the peripheral projection/recess contour in the peripheral edge surface; and (g) the seal arrangement comprises a pinch seal arrangement having: the outer peripheral edge surface; and, first and second, opposite, pinch seal housing engagement surfaces (414, 415); (i) at least a selected one of the first and second, opposite, pinch seal housing engagement surfaces (414, 415) including the contoured axial seal surface section having at least the first housing engagement projection/recess member therein. (i) at least a selected one of the first and second, opposite, pinch seal housing engagement surfaces (414, 415) including the contoured axial seal surface section having at least the first housing engagement projection/recess member therein.
A cleaning composition, comprising: - water in an amount of 4 to 10 wt.%; - linear alcohol ethoxylate 24-7 in an amount of 25 to 30 wt.%; - dipropylene glycol methyl ether in an amount of 2 to 5 wt.%; - ethanol in an amount of 0 to 2 wt.% - stilbene brightener in an amount of 0.01 to 0.05 wt.%; - linear alcohol ethoxylate 24-3 in an amount of 1 to 2 wt.%; - polyalcohols in an amount of 6 to 8 wt.%; - methyl ester in an amount of 0.5 to 1 wt.%; - methyl ester ethoxylates in an amount of 4 to 7 wt.%; - methyl ester sulphonate 40% aqueous in an amount of 35 to 40 wt.%; - fragrance in an amount of 1 to 2 wt.%; - protease liquid in an amount of 3 to 6 wt.%; - amylase liquid in an amount of 1 to 4 wt.%; - antiredeposition agent in an amount of 0.5 to 1 wt.%; - calcium chloride in an amount of 0 to 0.5 wt.%; and - enzyme preservative. - water in an amount of 4 to 10 wt.%; - linear alcohol ethoxylate 24-7 in an amount of 25 to 30 wt.%; - dipropylene glycol methyl ether in an amount of 2 to 5 wt.%; - ethanol in an amount of 0 to 2 wt.% - stilbene brightener in an amount of 0.01 to 0.05 wt.%; - linear alcohol ethoxylate 24-3 in an amount of 1 to 2 wt.%; - polyalcohols in an amount of 6 to 8 wt.%; - methyl ester in an amount of 0.5 to 1 wt.%; - methyl ester ethoxylates in an amount of 4 to 7 wt.%; - methyl ester sulphonate 40% aqueous in an amount of 35 to 40 wt.%; - fragrance in an amount of 1 to 2 wt.%; - protease liquid in an amount of 3 to 6 wt.%; - amylase liquid in an amount of 1 to 4 wt.%; - antiredeposition agent in an amount of 0.5 to 1 wt.%; - calcium chloride in an amount of 0 to 0.5 wt.%; and - enzyme preservative.
A data transmission method, comprising: receiving, by a terminal device, a first downlink signal from a network device in a first time unit of a first carrier, wherein the first carrier is a time division duplex, TDD, carrier, and the first time unit comprises a first slot or a first subframe; determining, by the terminal device, a second time unit used to send first feedback information for the first downlink signal on a second carrier, wherein the second carrier is a frequency division duplex, FDD, uplink carrier, and the second time unit comprises a second slot or a second subframe; and sending, by the terminal device, the first feedback information to the network device on the penultimate symbol and/or the last symbol of the second time unit of the second carrier, wherein, when the second time unit overlaps a first uplink slot of the first carrier in terms of time such that the penultimate symbol and/or the last symbol of the second time unit of the second carrier have a corresponding symbol location with the last two symbols of the first uplink slot, determining, by the terminal device, not to send any signal on the last two symbols of the first uplink slot. receiving, by a terminal device, a first downlink signal from a network device in a first time unit of a first carrier, wherein the first carrier is a time division duplex, TDD, carrier, and the first time unit comprises a first slot or a first subframe; determining, by the terminal device, a second time unit used to send first feedback information for the first downlink signal on a second carrier, wherein the second carrier is a frequency division duplex, FDD, uplink carrier, and the second time unit comprises a second slot or a second subframe; and sending, by the terminal device, the first feedback information to the network device on the penultimate symbol and/or the last symbol of the second time unit of the second carrier,
A mouse whose genome comprises a humanized SIRPα gene, wherein the humanized SIRPα gene is operably linked to a mouse SIRPα promoter at an endogenous mouse SIRPα locus, and expresses a humanized SIRPα protein in the mouse, and wherein the humanized SIRPα protein comprises (i) an extracellular portion that is at least 95% identical to amino acid residues 28-362 of a human SIRPα protein of SEQ ID NO: 4, and (ii) the intracellular portion of a mouse SIRPα protein. wherein the humanized SIRPα gene is operably linked to a mouse SIRPα promoter at an endogenous mouse SIRPα locus, and expresses a humanized SIRPα protein in the mouse, and wherein the humanized SIRPα protein comprises (i) an extracellular portion that is at least 95% identical to amino acid residues 28-362 of a human SIRPα protein of SEQ ID NO: 4, and (ii) the intracellular portion of a mouse SIRPα protein. (i) an extracellular portion that is at least 95% identical to amino acid residues 28-362 of a human SIRPα protein of SEQ ID NO: 4, and (ii) the intracellular portion of a mouse SIRPα protein.
A multilayer stack In a magnetic device, comprising: (a) a reference layer; (b) a free layer with perpendicular magnetic anisotropy and having a top surface and a bottom surface; (c) a tunnel barrier layer formed between the reference layer and free layer; and (d) one or both of a first dusting layer and a second dusting layer characterized in that each of the first and second dusting layers is made of boron or a boron alloy having a B content greater than about 85 atomic% wherein the first dusting layer contacts the bottom surface of the free layer and the second dusting layer contacts a top surface of the free layer. (a) a reference layer; (b) a free layer with perpendicular magnetic anisotropy and having a top surface and a bottom surface; (c) a tunnel barrier layer formed between the reference layer and free layer; and (d) one or both of a first dusting layer and a second dusting layer characterized in that each of the first and second dusting layers is made of boron or a boron alloy having a B content greater than about 85 atomic% wherein the first dusting layer contacts the bottom surface of the free layer and the second dusting layer contacts a top surface of the free layer.
Coated metal, the metal including metal and a coating formed on the metal, the coating comprising Si, P, and O, and at least one selected from the group consisting of Mg, Ca, Ba, Sr, Zn, Al, and Mn the coating comprising a compound having a NASICON-type crystal structure represented by the general formula M I M IV 2 (M V O 4) 3, wherein, in the general formula M I M IV 2 (M V O 4) 3, M I is at least one selected from the group consisting of Li, Na, K, 1/2Mg, 1/2Ca, 1/2Sr, and 1/4Zr, M IV is at least one selected from the group consisting of Zr, Ge, Ti, Hf, Cr+Na, Nb-Na, and Y+Na, and M V is at least one selected from the group consisting of P, As, and Si+Na.
A method of operating a dispatcher of an elevator group (112a-112c) of a building elevator system having a plurality of elevator systems (101a-101f) organized into multiple elevator groups (112a-112c), the method comprising: receiving an elevator call routed from a redirector of the building elevator system that received the elevator call, the elevator call including a desired destination; transmitting elevator status data from the elevator group to one or more other elevator groups (112a-112c) of the building elevator system; receiving elevator status data from each of the one or more other elevator groups (112a-112c) of the building elevator system; determining a verdict depicting whether an elevator car of the elevator group (112a-112c) is best to serve the elevator call in response to the elevator status data of each of the one or more other elevator groups (112a-112c) of the building elevator system; and transmitting the verdict to the redirector of the building elevator system, wherein the redirector is configured to call an elevator car in response to the verdict; receiving an elevator call routed from a redirector of the building elevator system that received the elevator call, the elevator call including a desired destination; transmitting elevator status data from the elevator group to one or more other elevator groups (112a-112c) of the building elevator system; receiving elevator status data from each of the one or more other elevator groups (112a-112c) of the building elevator system; determining a verdict depicting whether an elevator car of the elevator group (112a-112c) is best to serve the elevator call in response to the elevator status data of each of the one or more other elevator groups (112a-112c) of the building elevator system; and transmitting the verdict to the redirector of the building elevator system, wherein the redirector is configured to call an elevator car in response to the verdict;
Method for manufacturing an assembly for an optoelectronic sensor, wherein an assembly carrier is being equipped with at least one optoelectronic component (2, 3), the at least one optoelectronic component (2, 3) having an optically active surface (4, 5), wherein the optically active surface (4, 5) of the optoelectronic component is the light emitting portion of the surface of an optical transmitter or the portion of the surface of an optical receiver participating in the transformation of light into an electric signal, wherein, by applying of an at least partially opaque layer on portions of the optically active surface (4, 5) of the optoelectronic component (2, 3) at least one stop (6, 7) is formed, characterized in, that the position of the at least one stop (6, 7) in relation to the at least one stop (6, 7) is being aligned in relation to the assembly carrier and that the at least partially opaque layer extends on a bond contact being present at the optically active surface (4, 5) and extends at least partially on a bond wire being electrically contacting attached to the bond contact. wherein an assembly carrier is being equipped with at least one optoelectronic component (2, 3), the at least one optoelectronic component (2, 3) having an optically active surface (4, 5), wherein the optically active surface (4, 5) of the optoelectronic component is the light emitting portion of the surface of an optical transmitter or the portion of the surface of an optical receiver participating in the transformation of light into an electric signal, wherein, by applying of an at least partially opaque layer on portions of the optically active surface (4, 5) of the optoelectronic component (2, 3) at least one stop (6, 7) is formed, characterized in, that the position of the at least one stop (6, 7) in relation to the at least one stop (6, 7) is being aligned in relation to the assembly carrier and that the at least partially opaque layer extends on a bond contact being present at the optically active surface (4, 5) and extends at least partially on a bond wire being electrically contacting attached to the bond contact.
Method for monitoring the start time (Tdem) of a heat engine of a vehicle, said engine being mechanically coupled to a polyphase rotating electrical machine with field winding comprising phase windings and sensors of the position of a rotor in a number equal to the number of said phases, linked to an onboard electrical network, and said method being of the type of those consisting in performing a pre-fluxing by establishing an excitation current in said field winding for a predetermined pre-fluxing time (Tpref), before a setting up of phase currents controlled by command signals (Sw1, Sw2, Sw3) phase-shifted by a variable phase-shift angle (φ) as a function of a speed of rotation of said machine relative to synchronization signals (Si1, Si2, Si3) produced by said sensors, characterized in that said phase-shift angle (φ) is also, during said start time (Tdem), a function of a voltage (Vbat+X) of said onboard electrical network, lying between a first voltage and a second voltage greater than the first voltage.
A computer implemented method comprising: obtaining a reference list of materials comprising spectrum data for the materials in that reference list; obtaining a spectroscopic analysis of a sample comprising a plurality of unknown spectra associated with materials in the sample; providing a watchlist of one or more materials of interest; performing a down selection procedure to generate a modified reference list, wherein the one or more materials of interest are retained during the down selection procedure such that the modified reference list comprises both watchlist and non-watchlist materials; and identifying a match between an unknown spectrum and one of the spectrum data on the modified reference list which corresponds with the materials of interest on said watchlist, wherein the identification of a match between the unknown spectrum and the spectrum data on the modified reference list utilizes a predefined reporting threshold for the materials of interest on the watchlist such that the probability of detecting even a small amount of a material of interest on the watchlist is maximized. obtaining a reference list of materials comprising spectrum data for the materials in that reference list; obtaining a spectroscopic analysis of a sample comprising a plurality of unknown spectra associated with materials in the sample; providing a watchlist of one or more materials of interest; performing a down selection procedure to generate a modified reference list, wherein the one or more materials of interest are retained during the down selection procedure such that the modified reference list comprises both watchlist and non-watchlist materials; and identifying a match between an unknown spectrum and one of the spectrum data on the modified reference list which corresponds with the materials of interest on said watchlist, wherein the identification of a match between the unknown spectrum and the spectrum data on the modified reference list utilizes a predefined reporting threshold for the materials of interest on the watchlist such that the probability of detecting even a small amount of a material of interest on the watchlist is maximized.
Apparatus for generating a new instance of an N-bit cryptographic key (K i+1) for storage in a non-volatile memory, NVM, belonging to a device, in which unprogrammed cells have a particular binary value, the apparatus characterized by comprising: a network interface; and a processor, configured to: generate a random N-bit updating sequence (S i), generate the new instance of the N-bit cryptographic key (Ki+i) by negating each bit in a current instance of the N-bit cryptographic key (K i) that has the particular binary value and differs from a correspondingly-positioned bit in the random N-bit updating sequence (S i), without negating any bits in the current instance of the N-bit cryptographic key (K i) that do not have the particular binary value, and subsequently to generating the new instance of the N-bit cryptographic key (K i+1), using the network interface, communicate the new instance of the N-bit cryptographic key (Ki+i) to the device for storage in the NVM. a network interface; and a processor, configured to: generate a random N-bit updating sequence (S i), generate the new instance of the N-bit cryptographic key (Ki+i) by negating each bit in a current instance of the N-bit cryptographic key (K i) that has the particular binary value and differs from a correspondingly-positioned bit in the random N-bit updating sequence (S i), without negating any bits in the current instance of the N-bit cryptographic key (K i) that do not have the particular binary value, and subsequently to generating the new instance of the N-bit cryptographic key (K i+1), using the network interface, communicate the new instance of the N-bit cryptographic key (Ki+i) to the device for storage in the NVM. generate a random N-bit updating sequence (S i), generate the new instance of the N-bit cryptographic key (Ki+i) by negating each bit in a current instance of the N-bit cryptographic key (K i) that has the particular binary value and differs from a correspondingly-positioned bit in the random N-bit updating sequence (S i), without negating any bits in the current instance of the N-bit cryptographic key (K i) that do not have the particular binary value, and subsequently to generating the new instance of the N-bit cryptographic key (K i+1), using the network interface, communicate the new instance of the N-bit cryptographic key (Ki+i) to the device for storage in the NVM.
A therapeutically effective amount of SEQ ID NO: 14 for use in rendering a BCl-2 antagonist resistant subject more susceptible to treatment with a BCl-2 antagonist, wherein said subject is suffering from cancer and wherein SEQ ID NO: 14 increases the expression of miR-15a in the cells of said cancer and wherein said BCL-2 antagonist is selected from the group consisting of Oblimersen, SPC-2996, RTA-402, Gossypol, AT-101, Obatoclax mesylate, A-371191, A-385358, A-438744, ABT-737, ABT-199, AT-101, BL-11, BL-193, GX-15-003, 2-Methoxyantimycin A3, HA-14-1, KF-67544, Purpurogallin, TP-TW-37, YC-137 and Z-24.
Method for the production of hydrothermally hardened aerated or foamed concrete molded bodies, comprising the following method steps: a) Preparing a fresh concrete mass containing Portland cement clinker meal, quicklime and/or hydrated lime, ground quartz, preferably return slurry, water and at least one expanding agent or prefabricated foam or a foaming agent, b) If applicable, foaming the fresh concrete mass containing the foaming agent by stirring, c) Pouring the ready-to-pour fresh concrete mass into a casting mold, d) If necessary, allowing the fresh concrete mass to expand, e) Allowing the fresh concrete mass to stiffen to form an aerated or foamed concrete cake, f) Cutting the aerated or foamed concrete cake into individual aerated or foamed concrete molded bodies, g) Hardening the aerated or foamed concrete molded bodies in an autoclave, characterized in that the fresh concrete mass does not contain a sulfate carrier as a setting regulator and the fresh concrete mass preferably does not contain magnesium carbonate as an additive. a) Preparing a fresh concrete mass containing Portland cement clinker meal, quicklime and/or hydrated lime, ground quartz, preferably return slurry, water and at least one expanding agent or prefabricated foam or a foaming agent, b) If applicable, foaming the fresh concrete mass containing the foaming agent by stirring, c) Pouring the ready-to-pour fresh concrete mass into a casting mold, d) If necessary, allowing the fresh concrete mass to expand, e) Allowing the fresh concrete mass to stiffen to form an aerated or foamed concrete cake, f) Cutting the aerated or foamed concrete cake into individual aerated or foamed concrete molded bodies, g) Hardening the aerated or foamed concrete molded bodies in an autoclave,