mhurhangee/patent-ind-claim-en huggingface dataset:
A dental material container , comprising: a container body shaped like a cylinder with a bottom and configured to store a dental material that is shaped like a thick plate and includes a pair of opposing primary surfaces; and a cap formed to cover an opening at one end of the container body, wherein the cap is provided on the container body such that the cap is rotatable in a circumferential direction of the container body and includes an internal space capable of housing the dental material; an outlet through which the dental material is taken out is formed in a side surface of the cap; the container body includes a pair of first holders that are formed on an inner surface of the container body to hold the primary surfaces of the dental material such that the dental material is movable; characterised in that the cap includes a pair of second holders formed inside of the cap to hold the primary surfaces of the dental material such that the dental material is movable; and the dental material container is configured such that when the cap is rotated in the circumferential direction relative to the container body, a continuous space where the dental material is movable is formed by the first holders and the second holders, the dental material located closest to the opening in the container body moves into the cap, and the dental material moved into the cap is housed in the cap. a container body shaped like a cylinder with a bottom and configured to store a dental material that is shaped like a thick plate and includes a pair of opposing primary surfaces; and a cap formed to cover an opening at one end of the container body, wherein the cap is provided on the container body such that the cap is rotatable in a circumferential direction of the container body and includes an internal space capable of housing the dental material; an outlet through which the dental material is taken out is formed in a side surface of the cap; the container body includes a pair of first holders that are formed on an inner surface of the container body to hold the primary surfaces of the dental material such that the dental material is movable; characterised in that the cap includes a pair of second holders formed inside of the cap to hold the primary surfaces of the dental material such that the dental material is movable; and the dental material container is configured such that when the cap is rotated in the circumferential direction relative to the container body, a continuous space where the dental material is movable is formed by the first holders and the second holders, the dental material located closest to the opening in the container body moves into the cap, and the dental material moved into the cap is housed in the cap.
An aqueous urethane resin composition comprising: a urethane resin (A) that is a reaction product of essential ingredients including a polyol (a1) selected from a polyether polyol and/or a polycarbonate polyol, a reactive silicone (a2) having a number average molecular weight of 4,000 or more and having a functional group reactive with an isocyanate group, a polyisocyanate (a3), and at least one chain extender selected from the group consisting of ethylenediamine, isophoronediamine, and piperazine; and an aqueous medium (B).
Cooler, with individual cooling elements in a stacked construction with channels running in parallel with one another, each of which delimits a flow chamber for the liquid medium to be cooled to flow through, between which channels at least two layers of individual fin rows of meandering fins extend, which, with one another, in each case delimit a further flow chamber for air to flow through, wherein the respective one flow chamber permits the liquid medium to flow in a laminar manner through the assignable channel in one throughflow direction without any obstacles, in that the height (H1) of each fin , viewed across the throughflow direction of the liquid medium, is at least the same height (H2) as the free throughflow cross-section of the flow chamber of the adjacently arranged channel , viewed parallel to the extension of the respective fin , and in each layer a plurality of fin rows of a plurality of fins are arranged one behind the other, each having an offset (P) to one another when viewed in the throughflow direction of the channel , wherein the flow chamber of each channel has a free opening cross-section, which is delimited by exclusively rectangular, peripheral channel walls , wherein the fin rows and the channels extend between two media-conveying main spars , which form the fluid connections with the channels and span a rectangular end face as a cooler surface, wherein the individual cooling elements are formed in a stacked construction with the channels running in parallel with one another, characterised in that each individual cooling element comprises a composite with two layers of the meandering fins , that the two layers of a cooling element are separated by a separating wall , which in each case runs in a horizontal plane (E), and in that the channel walls of each channel have a material thickness in the wall thickness of each fin . wherein the flow chamber of each channel has a free opening cross-section, which is delimited by exclusively rectangular, peripheral channel walls , wherein the fin rows and the channels extend between two media-conveying main spars , which form the fluid connections with the channels and span a rectangular end face as a cooler surface, wherein the individual cooling elements are formed in a stacked construction with the channels running in parallel with one another, characterised in that each individual cooling element comprises a composite with two layers of the meandering fins , that the two layers of a cooling element are separated by a separating wall , which in each case runs in a horizontal plane (E), and in that the channel walls of each channel have a material thickness in the wall thickness of each fin .
A computer-implemented method of designing a guide polynucleotide for predictably inserting an adenine (A) or a thymine (T) nucleotide at a cut site produced by Cas9-mediated cleavage of DNA in a cell, the method comprising: selecting a target region in the DNA in the cell to be modified; and designing a guide polynucleotide complementary to a 20 nt protospacer in the target region such that the nucleotide at position 17 of the protospacer corresponds to an A or a T; wherein (i) for insertion of an A at the cut site, position 17 of the protospacer is A, or (ii) for insertion of a T at the cut site, position 17 of the protospacer is T; wherein the DNA is genomic DNA. selecting a target region in the DNA in the cell to be modified; and designing a guide polynucleotide complementary to a 20 nt protospacer in the target region such that the nucleotide at position 17 of the protospacer corresponds to an A or a T; wherein (i) for insertion of an A at the cut site, position 17 of the protospacer is A, or (ii) for insertion of a T at the cut site, position 17 of the protospacer is T; wherein the DNA is genomic DNA.
A method of processing received radiation reflected from a target , the method comprising generating a set of predicted targets , the set of predicted targets comprising at least one member , each member representing a state of the target including a parameter set comprising at least one parameter of the target, generating a predicted waveform for the radiation for each member dependent upon the state of the target , and comparing each predicted waveform with a waveform of the received radiation to determine the accuracy with which the state of the target represented by the member for which the predicted waveform was generated matches an actual state of the target; in which the step of comparing the predicted waveform with the waveform of the received radiation comprises determining the correlation between the predicted waveform and the waveform of the received radiation; the method being characterised in that : the step of generating the set of targets comprises generating a set of members scattered through a parameter space defined by the parameter set; and the method comprises, after the comparison between predicted and received waveforms, repopulating the set of predicted targets with members in the parameter space so that the members are scattered preferentially with increasing degree of correlation around the members of the set before repopulating . in which the step of comparing the predicted waveform with the waveform of the received radiation comprises determining the correlation between the predicted waveform and the waveform of the received radiation; the method being characterised in that : the step of generating the set of targets comprises generating a set of members scattered through a parameter space defined by the parameter set; and the method comprises, after the comparison between predicted and received waveforms, repopulating the set of predicted targets with members in the parameter space so that the members are scattered preferentially with increasing degree of correlation around the members of the set before repopulating . the step of generating the set of targets comprises generating a set of members scattered through a parameter space defined by the parameter set; and the method comprises, after the comparison between predicted and received waveforms, repopulating the set of predicted targets with members in the parameter space so that the members are scattered preferentially with increasing degree of correlation around the members of the set before repopulating .
A method of controlling an active seatbelt, including a seatbelt motor configured to control restraint and release of a seatbelt in response to a motor control signal, the method comprising: checking whether a seatbelt is fastened; collecting driving information from a sensor or driving assist/safety system installed in a vehicle; calculating a rollover angle from a rollover angular velocity of the vehicle, determining whether a Y-direction acceleration (Low Y) is greater than a first threshold, determining whether a Z-direction acceleration (Low Z) is greater than a second threshold, determining whether the rollover angular velocity is greater than a third threshold and determining whether the rollover angle is greater than a fourth threshold, determining a safety state of the vehicle based on the driving information, the determining of the safety state of the vehicle comprises determining a rollover situation of the vehicle when at least one of Y-direction acceleration (Low Y) and the Z-direction acceleration (Low Z) is greater than a respective one of first and second thresholds, the rollover angular velocity (Roll rate) is greater than the third threshold, and the rollover angle is greater than the fourth threshold; checking whether a side airbag disposed at a lateral side is deployed; and outputting a motor control signal for restraint control of the seatbelt, when a rollover situation of the vehicle is determined and it is determined that the side airbag is not deployed. checking whether a seatbelt is fastened; collecting driving information from a sensor or driving assist/safety system installed in a vehicle; calculating a rollover angle from a rollover angular velocity of the vehicle, determining whether a Y-direction acceleration (Low Y) is greater than a first threshold, determining whether a Z-direction acceleration (Low Z) is greater than a second threshold, determining whether the rollover angular velocity is greater than a third threshold and determining whether the rollover angle is greater than a fourth threshold, determining a safety state of the vehicle based on the driving information, the determining of the safety state of the vehicle comprises determining a rollover situation of the vehicle when at least one of Y-direction acceleration (Low Y) and the Z-direction acceleration (Low Z) is greater than a respective one of first and second thresholds, the rollover angular velocity (Roll rate) is greater than the third threshold, and the rollover angle is greater than the fourth threshold; checking whether a side airbag disposed at a lateral side is deployed; and outputting a motor control signal for restraint control of the seatbelt, when a rollover situation of the vehicle is determined and it is determined that the side airbag is not deployed.
A system for determining network device transiting data attributes , the system comprising: one or more memory devices storing instructions; and one or more processors configured to execute the instructions to: run a first script on all static ports 130) of a network , wherein the first script returns parameters for the static ports; run a second script on all known ports of the network , wherein the second script returns parameters for the known ports; parse the returned parameters for the static ports and the returned parameters for the known ports to identify one or more identified ports of the known ports ; run a third script on the one or more identified ports , wherein the third script forces one or more denials on the one or more identified ports ; and determine, based on the one or more denials, network device transiting data attributes comprising allowed protocols and directionality for each of the one or more identified ports. one or more memory devices storing instructions; and one or more processors configured to execute the instructions to: run a first script on all static ports 130) of a network , wherein the first script returns parameters for the static ports; run a second script on all known ports of the network , wherein the second script returns parameters for the known ports; parse the returned parameters for the static ports and the returned parameters for the known ports to identify one or more identified ports of the known ports ; run a third script on the one or more identified ports , wherein the third script forces one or more denials on the one or more identified ports ; and determine, based on the one or more denials, network device transiting data attributes comprising allowed protocols and directionality for each of the one or more identified ports. run a first script on all static ports 130) of a network , wherein the first script returns parameters for the static ports; run a second script on all known ports of the network , wherein the second script returns parameters for the known ports; parse the returned parameters for the static ports and the returned parameters for the known ports to identify one or more identified ports of the known ports ; run a third script on the one or more identified ports , wherein the third script forces one or more denials on the one or more identified ports ; and determine, based on the one or more denials, network device transiting data attributes comprising allowed protocols and directionality for each of the one or more identified ports.
A multiple-cell tank for use in winemaking, which comprises a supporting frame for a tank body which comprises a bottom wall , a top wall and a lateral shell , at least two containment cells being defined inside said tank body and being mutually hermetically separated by at least one separation partition , characterized in that said at least one separation partition extends between said bottom wall and said top wall , at said lateral shell there being at least one first and at least one second access hatch , which lead into a respective containment cell , and are arranged substantially at the same height with respect to said bottom wall , at said top wall there being at least one first and at least one second evacuation stack in communication with a respective containment cell .
A method of wireless communication by a user equipment, UE, comprising: receiving a machine learning model trained in a federated learning process from a base station ; reporting , to the base station , a machine learning processing capability indicating a turnaround time for the UE to compute a gradient for the machine learning model; computing gradient updates or weight updates for the machine learning model in accordance with the turnaround time; and transmitting , to the base station, the gradient updates or weight updates to the machine learning model. receiving a machine learning model trained in a federated learning process from a base station ; reporting , to the base station , a machine learning processing capability indicating a turnaround time for the UE to compute a gradient for the machine learning model; computing gradient updates or weight updates for the machine learning model in accordance with the turnaround time; and transmitting , to the base station, the gradient updates or weight updates to the machine learning model.
A communications method for wireless networks, comprising: receiving, by a centralized unit, CU, from a distributed unit, DU, a correspondence between an absolute time and a radio frame number and a scheduling arrangement of each system information block, SIB, sending (S1201), by the CU, a message comprising first absolute time corresponding to a first radio frame number of the message to a user equipment, UE; setting (S1202), by the CU, at the SDAP or PDCP layer, time information which corresponds to a data unit to be sent to the UE. receiving, by a centralized unit, CU, from a distributed unit, DU, a correspondence between an absolute time and a radio frame number and a scheduling arrangement of each system information block, SIB, sending (S1201), by the CU, a message comprising first absolute time corresponding to a first radio frame number of the message to a user equipment, UE; setting (S1202), by the CU, at the SDAP or PDCP layer, time information which corresponds to a data unit to be sent to the UE.
Precious alloy for horological applications whose only constituents are taken from a group exclusively including gold, palladium, silver, copper, iridium, zinc, iron, nickel and cobalt, said alloy containing by mass, in parts per thousand of the total, from 540 to 630 parts of gold, from 150 to 220 parts of palladium, from 100 to 265 parts of silver, more than 150 and up to 160 parts of copper, from 0.0 to 0.2 parts of iridium, from 0.0 to 4.0 parts of zinc, and the remainder to 1,000 parts containing iron and/or nickel and/or cobalt, characterized in that the proportion by mass of the total content of gold, palladium, silver, copper, iridium and zinc is greater than 999.900 parts per thousand of the total, in that the proportion by mass of said remainder is less than 0.100 parts per thousand of the total, in that the density of the alloy is comprised between 13.5 and 14.5 g/cm 3 , and in that the proportion by mass of cobalt is less than 0.005 parts per thousand of the total, and in that the proportion by mass of iron is less than 0.005 parts per thousand of the total, and in that the proportion by mass of nickel is less than 0.005 parts per thousand of the total, characterized in that said alloy contains, by mass, a total copper and zinc content comprised between 150 and 160 parts per thousand of the total.
A fiber reinforced polymer composition comprising (a) from 10 to 85 wt.-%, based on the total weight of the fiber reinforced polymer composition, of a polypropylene (PP), (b) from 12.5 to 53 wt.-%, based on the total weight of the fiber reinforced polymer composition, of fibers (F), (c) from 2 to 12 wt.-%, based on the total weight of the fiber reinforced polymer composition, of glass bubbles (GB), and (d) from 0.5 to 5 wt.-%, based on the total weight of the fiber reinforced polymer composition, of a polar modified polypropylene (PMP) as coupling agent; wherein the fibers (F) are glass fibers. (a) from 10 to 85 wt.-%, based on the total weight of the fiber reinforced polymer composition, of a polypropylene (PP), (b) from 12.5 to 53 wt.-%, based on the total weight of the fiber reinforced polymer composition, of fibers (F), (c) from 2 to 12 wt.-%, based on the total weight of the fiber reinforced polymer composition, of glass bubbles (GB), and (d) from 0.5 to 5 wt.-%, based on the total weight of the fiber reinforced polymer composition, of a polar modified polypropylene (PMP) as coupling agent;
A middle frame image processing apparatus comprising: a first image sensor configured to output a first middle frame image data object based on a first full frame image size and a middle frame image size; a second image sensor configured to output a second middle frame image data object based on a second full frame image size and the middle frame image size; and a processor that is in data communication with the first image sensor and the second image sensor, the processor configured to: select an image sensor from the first image sensor and the second image sensor; receive a middle frame image data object from the selected image sensor, wherein the middle frame image data object is one of the first middle frame image data object and the second middle frame image data object; wherein the middle frame image size represents a shared image size for image data objects outputted by each of the plurality of image sensors; and process the middle frame image data object. a first image sensor configured to output a first middle frame image data object based on a first full frame image size and a middle frame image size; a second image sensor configured to output a second middle frame image data object based on a second full frame image size and the middle frame image size; and a processor that is in data communication with the first image sensor and the second image sensor, the processor configured to: select an image sensor from the first image sensor and the second image sensor; receive a middle frame image data object from the selected image sensor, select an image sensor from the first image sensor and the second image sensor; receive a middle frame image data object from the selected image sensor, wherein the middle frame image data object is one of the first middle frame image data object and the second middle frame image data object; wherein the middle frame image size represents a shared image size for image data objects outputted by each of the plurality of image sensors; and process the middle frame image data object. wherein the middle frame image size represents a shared image size for image data objects outputted by each of the plurality of image sensors; and process the middle frame image data object.
A plate suitable for use in manufacturing a wireless communication module , said plate comprising: - a substrate delimited by edges , - an antenna having a surface that is at least partially electrically insulated, said antenna comprising: - two ends suitable for being connected to an electronic chip , and - a plurality of windings , each including at least one turn , the plate comprising a plurality of portions delimited by a folding line assembly comprising at least one folding line and the edges of the substrate , such that: - at least two of the portions each comprise at least one winding , and - the two ends are positioned at the same portion , characterized in that the antenna is formed by a continuous wire of material. - a substrate delimited by edges , - an antenna having a surface that is at least partially electrically insulated, said antenna comprising: - two ends suitable for being connected to an electronic chip , and - a plurality of windings , each including at least one turn , - two ends suitable for being connected to an electronic chip , and - a plurality of windings , each including at least one turn , - at least two of the portions each comprise at least one winding , and - the two ends are positioned at the same portion ,
An isolated Chinese hamster ovary cell deposited at the American Type Culture Collection under deposit number PTA-10481.