mhurhangee/ep-ind-claims huggingface dataset:
A method of monitoring conditions at a space, performed by a system comprising a network linked application server communicatively linked with a monitoring device, to control operative states of one or more devices, comprising: a. monitoring in a first mode having ascertained that at least one mobile device of permanent authorization is within a distance threshold from the space, the first mode controlling one or more devices in a first operative state; and, b. monitoring in a second mode having ascertained that the mobile devices of permanent authorization are all beyond the distance threshold from the space, the second mode controlling the one or more devices in second operative states that depend on whether a present time is within a time period of temporary user authorization, the time period of temporary user authorization being a time period in which at least one mobile device of temporary authorization is authorized within the distance threshold. a. monitoring in a first mode having ascertained that at least one mobile device of permanent authorization is within a distance threshold from the space, the first mode controlling one or more devices in a first operative state; and, b. monitoring in a second mode having ascertained that the mobile devices of permanent authorization are all beyond the distance threshold from the space, the second mode controlling the one or more devices in second operative states that depend on whether a present time is within a time period of temporary user authorization, the time period of temporary user authorization being a time period in which at least one mobile device of temporary authorization is authorized within the distance threshold.
A method for the preparation of therapeutic cells or cultures comprising: a) isolating cells from human umbilical cord tissue free of blood in the presence of (i) neutral protease activity or (ii) two or more enzyme activities selected from metalloprotease, neutral protease and mucolytic enzyme activities, wherein said cells are capable of self-renewal and expansion in culture, have the potential to differentiate into cells of other phenotypes, and wherein the cells: produce each of CD10, CD13, CD44, CD73, CD90, PDGFr-alpha, and HLA-A,B,C, as detected by flow cytometry, and do not produce each of CD31, CD34, CD45, CD117, CD141, or HLA-DR,DP,DQ, as detected by flow cytometry; b) initially expanding the cells to a useful number in a serum-containing medium which supports cell expansion but in which the cells produce a quantity of the cell surface marker HLA-ABC; c) transferring the cells to a medium in which the cells produce a decreased amount of the cell surface marker HLA-ABC, wherein the medium in which the cells produce a decreased amount of the cell surface marker HLA-ABC is a serum-free medium; and d) passaging the cells in the medium in which the cells produce a decreased amount of the HLA-ABC e) thereby preparing a therapeutic cell or culture. a) isolating cells from human umbilical cord tissue free of blood in the presence of (i) neutral protease activity or (ii) two or more enzyme activities selected from metalloprotease, neutral protease and mucolytic enzyme activities, wherein said cells are capable of self-renewal and expansion in culture, have the potential to differentiate into cells of other phenotypes, and wherein the cells: produce each of CD10, CD13, CD44, CD73, CD90, PDGFr-alpha, and HLA-A,B,C, as detected by flow cytometry, and do not produce each of CD31, CD34, CD45, CD117, CD141, or HLA-DR,DP,DQ, as detected by flow cytometry; produce each of CD10, CD13, CD44, CD73, CD90, PDGFr-alpha, and HLA-A,B,C, as detected by flow cytometry, and do not produce each of CD31, CD34, CD45, CD117, CD141, or HLA-DR,DP,DQ, as detected by flow cytometry; b) initially expanding the cells to a useful number in a serum-containing medium which supports cell expansion but in which the cells produce a quantity of the cell surface marker HLA-ABC; c) transferring the cells to a medium in which the cells produce a decreased amount of the cell surface marker HLA-ABC, wherein the medium in which the cells produce a decreased amount of the cell surface marker HLA-ABC is a serum-free medium; and d) passaging the cells in the medium in which the cells produce a decreased amount of the HLA-ABC e) thereby preparing a therapeutic cell or culture.
An article for producing a sound when deformed, the article comprising: a flexible and resilient outer body having an interior cavity; a flexible and resilient inner body at least partially disposed within the interior cavity of the outer body; and an unsealed sound-producing member surrounding at least a portion of the inner body and disposed within the interior cavity of the outer body, characterized in that the outer body has a plurality of inwardly facing projections that project into the interior cavity of the outer body and that focus force applied to the outer body on the sound-producing member, such that the total surface area over which such force is applied is reduced, and such that the sound-producing member produces sound when the outer body is deformed. a flexible and resilient outer body having an interior cavity; a flexible and resilient inner body at least partially disposed within the interior cavity of the outer body; and an unsealed sound-producing member surrounding at least a portion of the inner body and disposed within the interior cavity of the outer body, characterized in that the outer body has a plurality of inwardly facing projections that project into the interior cavity of the outer body and that focus force applied to the outer body on the sound-producing member, such that the total surface area over which such force is applied is reduced, and such that the sound-producing member produces sound when the outer body is deformed.
A tire comprising a tread portion, wherein the tread portion is provided with a plurality of circumferential grooves extending in a tire circumferential direction and a plurality of land regions demarcated by the circumferential grooves, the circumferential grooves include a first circumferential groove and a second circumferential groove adjacent to the first circumferential groove and having a width larger than a width of the first circumferential groove, the land regions include a first land region demarcated between the first circumferential groove and the second circumferential groove, the first land region is provided with a plurality of lateral grooves extending in a tire axial direction and a plurality of lateral sipes extending in the tire axial direction and each having a width smaller than a width of each of the lateral grooves, and a total value of the widths of the lateral grooves and the lateral sipes connected to the second circumferential grooves is smaller than a total value of the widths of the lateral grooves and the lateral sipes connected to the first circumferential grooves, characterized in that the lateral grooves include first lateral grooves extending from the first circumferential groove and terminating in the first land region, and second lateral grooves extending from the second circumferential groove and terminating in the first land region, and each of lengths (L1, L2) in the tire axial direction of the first lateral grooves and the second lateral grooves is 20% or more and 35% or less of a width in the tire axial direction of the first land region. wherein the tread portion is provided with a plurality of circumferential grooves extending in a tire circumferential direction and a plurality of land regions demarcated by the circumferential grooves, the circumferential grooves include a first circumferential groove and a second circumferential groove adjacent to the first circumferential groove and having a width larger than a width of the first circumferential groove, the land regions include a first land region demarcated between the first circumferential groove and the second circumferential groove, the first land region is provided with a plurality of lateral grooves extending in a tire axial direction and a plurality of lateral sipes extending in the tire axial direction and each having a width smaller than a width of each of the lateral grooves, and a total value of the widths of the lateral grooves and the lateral sipes connected to the second circumferential grooves is smaller than a total value of the widths of the lateral grooves and the lateral sipes connected to the first circumferential grooves, characterized in that the lateral grooves include first lateral grooves extending from the first circumferential groove and terminating in the first land region, and second lateral grooves extending from the second circumferential groove and terminating in the first land region, and each of lengths (L1, L2) in the tire axial direction of the first lateral grooves and the second lateral grooves is 20% or more and 35% or less of a width in the tire axial direction of the first land region.
A method comprising: receiving, by a server, sensor data indicative of a load on an engine from one or more fleet devices, wherein the fleet devices are lawnmowers; analyzing, using a processor, the load from the sensor data to identify a management function; generate, using the processor, a message including the management function, wherein the sensor data is throttle position of the engine indicative of a mechanical device connected to the engine of the lawnmower, characterized by: comparing the sensor data to a load signature, wherein the load signature is the lawnmower deck signature, wherein the deck signature reflects the additional load placed on the engine when engaging a deck to the lawnmower, wherein the deck signature includes a time starting point, a time peak value, and a time end point, wherein comparing the sensor data to the signature involves comparing, at the server, the sensed throttle position data received from the engine with the expected deck signature to identify when the deck of the lawnmower is engaged. receiving, by a server, sensor data indicative of a load on an engine from one or more fleet devices, wherein the fleet devices are lawnmowers; analyzing, using a processor, the load from the sensor data to identify a management function; generate, using the processor, a message including the management function, wherein the sensor data is throttle position of the engine indicative of a mechanical device connected to the engine of the lawnmower, characterized by: comparing the sensor data to a load signature, wherein the load signature is the lawnmower deck signature, wherein the deck signature reflects the additional load placed on the engine when engaging a deck to the lawnmower, wherein the deck signature includes a time starting point, a time peak value, and a time end point, wherein comparing the sensor data to the signature involves comparing, at the server, the sensed throttle position data received from the engine with the expected deck signature to identify when the deck of the lawnmower is engaged. comparing the sensor data to a load signature, wherein the load signature is the lawnmower deck signature, wherein the deck signature reflects the additional load placed on the engine when engaging a deck to the lawnmower, wherein the deck signature includes a time starting point, a time peak value, and a time end point, wherein comparing the sensor data to the signature involves comparing, at the server, the sensed throttle position data received from the engine with the expected deck signature to identify when the deck of the lawnmower is engaged.
A lithium ion capacitor comprising an electrode laminated body stored in a casing together with a non-aqueous electrolytic solution containing a lithium ion-containing electrolyte; wherein said electrode laminated body is laminated so that (i) a negative electrode body having a negative electrode active material comprised of a carbon material, and (ii) a positive electrode body having a positive electrode active material face each other through (iii) a laminated separator where a polyolefin porous membrane and an electrically insulating porous membrane are laminated; and wherein said insulating porous membrane is in contact with said negative electrode body, characterized in that the positive electrode active material is an activated carbon, the insulating porous membrane is formed on one side of the polyolefin porous membrane, and wherein said insulating porous membrane contains inorganic fillers and a resin binder.
Computer-implemented consensus method for obtaining a valid global state for a distributed database, wherein the distributed database comprises main nodes, each main node storing a complete dataset, and a plurality of subsets of nodes, each subset configured to store a part of the dataset, the method comprising the steps: a. receiving a request for providing a valid global state of the distributed database, b. determining by each subset of nodes a first local state (1_LS1,..., 1_LSi,..., 1_LSn) for each subset based on status information of nodes of the respective subset regarding the respective part of the dataset, c. combining these first local states (1_LS1,..., 1_LSi,...,1_LSn) of all subsets to a first combined state, d. determining a global state by the main nodes based on status information of the main nodes regarding the stored dataset, e. verifying the first combined state by matching the first combined state with the global state generating a verification result, wherein verifying the first combined state is performed by all main nodes or by one randomly selected main node, and f. outputting the first combined state as valid global state for the distributed database depending on the previously generated verification result. a. receiving a request for providing a valid global state of the distributed database, b. determining by each subset of nodes a first local state (1_LS1,..., 1_LSi,..., 1_LSn) for each subset based on status information of nodes of the respective subset regarding the respective part of the dataset, c. combining these first local states (1_LS1,..., 1_LSi,...,1_LSn) of all subsets to a first combined state, d. determining a global state by the main nodes based on status information of the main nodes regarding the stored dataset, e. verifying the first combined state by matching the first combined state with the global state generating a verification result, wherein verifying the first combined state is performed by all main nodes or by one randomly selected main node, and f. outputting the first combined state as valid global state for the distributed database depending on the previously generated verification result.
Robot for handling goods in transit, in particular for combining goods in transit to form a common delivery batch on a pallet, comprising at least one movable fork unit (20a-20d) having - at least one load-bearing fork and - at least one fork base, relative to which the at least one load-bearing fork can be moved translationally, - a cleaning device - which is designed with a cleaning chamber which can be isolated from the surroundings, and which is designed to completely accommodate the load-bearing fork and at least partly accommodate the fork base, - having an access opening for the at least partial introduction of the fork unit (20a-20d) into the cleaning chamber, and - having at least one inflow opening (62, 62a, 62b) for cleaning liquid, which opens into the cleaning chamber, characterized in that the fork base has a housing with at least one inlet opening (36a, 36b), through which cleaning liquid from outside can reach an interior of the fork base, wherein at least one inflow opening (62a, 62b) of the cleaning chamber is or can be arranged in such a way that it can be coupled to the inlet opening (36a, 36b) of the fork base. - at least one load-bearing fork and - at least one fork base, relative to which the at least one load-bearing fork can be moved translationally, - a cleaning device - which is designed with a cleaning chamber which can be isolated from the surroundings, and which is designed to completely accommodate the load-bearing fork and at least partly accommodate the fork base, - having an access opening for the at least partial introduction of the fork unit (20a-20d) into the cleaning chamber, and - having at least one inflow opening (62, 62a, 62b) for cleaning liquid, which opens into the cleaning chamber, - which is designed with a cleaning chamber which can be isolated from the surroundings, and which is designed to completely accommodate the load-bearing fork and at least partly accommodate the fork base, - having an access opening for the at least partial introduction of the fork unit (20a-20d) into the cleaning chamber, and - having at least one inflow opening (62, 62a, 62b) for cleaning liquid, which opens into the cleaning chamber,
A composition comprising a polymer and a phosphorescent material wherein the polymer comprises repeat units of formula: wherein; R 1 in each occurrence is independently a substituent; n is 0, 1, 2, 3 or 4; and R 2 is a substituent. R 1 in each occurrence is independently a substituent; n is 0, 1, 2, 3 or 4; and R 2 is a substituent.
A memory card, comprising a card body, and a communications unit and a storage unit that are disposed on the card body, wherein a plurality of connection pins are disposed on the card body, the plurality of connection pins comprise a first connection pin, a second connection pin, and a third connection pin, the first connection pin is separately connected to the communications unit and the storage unit, the second connection pin is separately connected to the communications unit and the storage unit, and the third connection pin is connected to the communications unit, wherein the memory card further comprises a first processor and a control switch, wherein the first processor is configured to control, by using the control switch, the first connection pin and the second connection pin to be connected to the communications unit or the storage unit; wherein the first processor is configured to: control, by using the control switch, the first connection pin and the second connection pin to be connected to the communications unit; characterized in that the first processor is further configured to: control the communications unit to send a connection determining signal to a mobile terminal, and when no feedback signal of the mobile terminal is received, control the control switch to connect the first connection pin and the second connection pin to the storage unit. the memory card further comprises a first processor and a control switch, wherein the first processor is configured to control, by using the control switch, the first connection pin and the second connection pin to be connected to the communications unit or the storage unit; wherein the first processor is configured to: control, by using the control switch, the first connection pin and the second connection pin to be connected to the communications unit; characterized in that the first processor is further configured to: control the communications unit to send a connection determining signal to a mobile terminal, and when no feedback signal of the mobile terminal is received, control the control switch to connect the first connection pin and the second connection pin to the storage unit. control, by using the control switch, the first connection pin and the second connection pin to be connected to the communications unit; characterized in that the first processor is further configured to: control the communications
A method for manufacturing chimeric peptides consisting of two different peptide chains, chain A from one insulin like peptide and chain B from another insulin like peptide, wherein the chain A is selected from the A chain of Insulin, INSL3, INSL4, INSL5, INSL6 (RIF-1), Relaxin 1, Relaxin 2, INSL7 (Relaxin 3), IGF-1 and IGF-2 as shown below: and the chain B is selected from the B chain of Insulin, INSL3, INSL4, INSL5, INSL6 (RIF-1), Relaxin 1, Relaxin 2, INSL7 (Relaxin 3), IGF-1 and IGF-2 as shown below: wherein the insulin like peptide of chain A is different from the insulin like peptide of chain B; and wherein the two chains are combined together i. by the reaction of a chain A which contains at least two intramolecular disulfide bonds and of a B-chain which contains at least one intramolecular disulfide bond in the presence of a reducing agent; ii. by the reaction of an A-chain which contains at least two intramolecular disulfide bonds with a B chain which contains at least two cysteine residues in the presence of a mild oxidant; or iii. by the reaction of a chain-A which contains at least one intramolecular disulfide bond and at least two cysteine residues with free thiol groups with a B-chain which contains at least one intramolecular disulfide bond in the presence of a mild oxidant; and wherein the two chains are combined together under conditions suitable to form at least one intermolecular disulfide bond and where at least one of the chains A and B contain at least one additional intramolecular disulfide bond. i. by the reaction of a chain A which contains at least two intramolecular disulfide bonds and of a B-chain which contains at least one intramolecular disulfide bond in the presence of a reducing agent; ii. by the reaction of an A-chain which contains at least two intramolecular disulfide bonds with a B chain which contains at least two cysteine residues in the presence of a mild oxidant; or iii. by the reaction of a chain-A which contains at least one intramolecular disulfide bond and at least two cysteine residues with free thiol groups with a B-chain which contains at least one intramolecular disulfide bond in the presence of a mild oxidant;
An electric heating device for a motor vehicle, comprising a frame having provided therein a layered structure, which includes a plurality of parallel sheet metal strips and PTC heating rods including PTC elements arranged therebetween, and a plurality of radiator elements, selected ones of said sheet metal strips of the PTC heating rods being extended laterally beyond the layered structure so as to form electric connecting lugs, and further comprising a connector housing connected to the frame, characterized by at least one connecting element (16; 18) defining a connector tongue (20; 22) and accommodated in the connector housing, said connecting element (16; 18) defining at least one contact tongue receptacle by means of which a plug contact is formed between the connecting element (16; 18) and an associated connecting lug.
A method for a receiver communicating with a transmitter in wireless network, the method comprising: - determining a wireless channel status; - selecting a beamforming scheme according to the determined wireless channel status, wherein the beamforming scheme being digital beamforming or analog beamforming; and - receiving data from the transmitter, according to the selected beamforming scheme; wherein the step of selecting the beamforming scheme according to the determined wireless channel status comprising: - selecting an analog beamforming in response to the determined wireless channel status being coverage limited; or - selecting a digital beamforming in response to the determined wireless channel status being capacity limited. - determining a wireless channel status; - selecting a beamforming scheme according to the determined wireless channel status, wherein the beamforming scheme being digital beamforming or analog beamforming; and - receiving data from the transmitter, according to the selected beamforming scheme; - selecting an analog beamforming in response to the determined wireless channel status being coverage limited; or - selecting a digital beamforming in response to the determined wireless channel status being capacity limited.