mhurhangee/ep-ind-claims huggingface dataset:
A rare-earth complex polymer comprising: a plurality of both trivalent rare-earth ions and phosphine oxide multidentate ligands; and a crosslinked structure formed by the phosphine oxide multidentate ligands being coordinated to a plurality of the rare-earth ions, wherein the phosphine oxide multidentate ligand is a phosphine oxide bidentate ligand comprising a structure represented by the following formula: wherein the R 11 is a divalent organic group, Ar 12, Ar 13, Ar 14, and Ar 15 each independently represent a monovalent aromatic group which may have a substituent; Ar 12 and Ar 13, and Ar 14 and Ar 15 may be directly bonded with each other or may be bonded through a linking group; and n is an integer of 1 to 20, and wherein the R 11 is a group represented by the following formula, a group represented by the following formula, a group represented by the following formula, or a group represented by the following formula: wherein R 2 represents a monovalent organic group, m is an integer of 0 to a number of sites capable of being substituted in a ring which R 2 is bonded with, and Ph represents a phenyl group; and in the case where m is 2 or more, a plurality of R 2 may be each the same or different from each other, and wherein the rare-earth ion is a Eu ion, a Tb ion, a Sm ion, an Yb ion, a Nd ion, or an Er ion. a plurality of both trivalent rare-earth ions and phosphine oxide multidentate ligands; and a crosslinked structure formed by the phosphine oxide multidentate ligands being coordinated to a plurality of the rare-earth ions, wherein the phosphine oxide multidentate ligand is a phosphine oxide bidentate ligand comprising a structure represented by the following formula: wherein the R 11 is a divalent organic group, Ar 12, Ar 13, Ar 14, and Ar 15 each independently represent a monovalent aromatic group which may have a substituent; Ar 12 and Ar 13, and Ar 14 and Ar 15 may be directly bonded with each other or may be bonded through a linking group; and n is an integer of 1 to 20, and wherein the R 11 is a group represented by the following formula, a group represented by the following formula, a group represented by the following formula, or a group represented by the following formula: wherein R 2 represents a monovalent organic group, m is an integer of 0 to a number of sites capable of being substituted in a ring which R 2 is bonded with, and Ph represents a phenyl group; and in the case where m is 2 or more, a plurality of R 2 may be each the same or different from each other, and wherein the rare-earth ion is a Eu ion, a Tb ion, a Sm ion, an Yb ion, a Nd ion, or an Er ion.
A machine (10, 110) for making columns in ground, the machine comprising: · a carrier (12, 112) provided with a mast (18, 118) having a longitudinal direction and a bottom end; · a movable carriage (22, 122) mounted to slide along the mast; · a longitudinal ground drill tool (26, 126) fastened to the movable carriage, presenting a top end (26a, 26b, 126b) connected to means for feeding a first building material, and a bottom end provided with an orifice (28, 128) for discharging the first building material; · a tank (30, 130) for receiving a second building material, said tank presenting a bottom end (32a, 132a) provided with an opening for delivering the second building material; · means for inserting the tank (30, 130) into the ground; the machine being characterized in that said tank is mounted at the bottom end of the mast while extending around the drill tool so that the drill tool is suitable for sliding through the tank. · a carrier (12, 112) provided with a mast (18, 118) having a longitudinal direction and a bottom end; · a movable carriage (22, 122) mounted to slide along the mast; · a longitudinal ground drill tool (26, 126) fastened to the movable carriage, presenting a top end (26a, 26b, 126b) connected to means for feeding a first building material, and a bottom end provided with an orifice (28, 128) for discharging the first building material; · a tank (30, 130) for receiving a second building material, said tank presenting a bottom end (32a, 132a) provided with an opening for delivering the second building material; · means for inserting the tank (30, 130) into the ground;
A method for a tightness test of a test piece in a test chamber whose wall is at least partly made of a flexible material, wherein said test piece is introduced into said test chamber and said test chamber is then evacuated, characterized in that the tightness test is performed by measuring the gas density inside said test chamber in the area outside said test piece.
A method for reducing latency, comprising: receiving, by a terminal, a physical downlink control channel, PDCCH, signal, the PDCCH signal comprising a plurality of groups of control channel elements, CCEs, wherein each group of CCEs is associated with an aggregation level of a plurality of aggregation levels; characterized by the method further comprising: determining, by the terminal, based on a packet error rate, PER, a probability of downlink control information, DCI, being present at each aggregation level of the plurality of aggregation levels; and decoding, by the terminal, the groups of CCEs in an order, wherein the order is based on the probability of the DCI being present at each aggregation level and the order is from a highest probability to a lowest probability, wherein the aggregation level with the highest probability is determined as al 1 = arg min al per al < = per t arg et, and the order is determined as all, all * 2,..., max AL, al 1 / 2,...,1, where per t arg et is a target PER and per al is the PER of each respective aggregation level of the plurality of aggregation levels. receiving, by a terminal, a physical downlink control channel, PDCCH, signal, the PDCCH signal comprising a plurality of groups of control channel elements, CCEs, wherein each group of CCEs is associated with an aggregation level of a plurality of aggregation levels; characterized by the method further comprising: determining, by the terminal, based on a packet error rate, PER, a probability of downlink control information, DCI, being present at each aggregation level of the plurality of aggregation levels; and decoding, by the terminal, the groups of CCEs in an order, wherein the order is based on the probability of the DCI being present at each aggregation level and the order is from a highest probability to a lowest probability, wherein the aggregation level with the highest probability is determined as al 1 = arg min al per al < = per t arg et, and the order is determined as all, all * 2,..., max AL, al 1 / 2,...,1, where per t arg et is a target PER and per al is the PER of each respective aggregation level of the plurality of aggregation levels. determining, by the terminal, based on a packet error rate, PER, a probability of downlink control information, DCI, being present at each aggregation level of the plurality of aggregation levels; and decoding, by the terminal, the groups of CCEs in an order, wherein the order is based on the probability of the DCI being present at each aggregation level and the order is from a highest probability to a lowest probability, wherein the aggregation level with the highest probability is determined as al 1 = arg min al per al < = per t arg et, and the order is determined as all, all * 2,..., max AL, al 1 / 2,...,1, where per t arg et is a target PER and per al is the PER of each respective aggregation level of the plurality of aggregation levels.
A method of operating an end node in a connection-oriented network in which there is a working path and a segment recovery path for a segment of the working path, the working path having a branch node (N2, N5) at an end of the segment where the segment recovery path connects to the working path, the branch node not being located at an end node (N1, N7) of the working path and having responsibility for activating the segment recovery path, the method comprising: receiving control plane signalling at said end node (N1, N7) of the working path from a node along the working path, indicating that a failure has occurred along the working path; determining at said end node, from the received control plane signalling, if the failure has occurred outside the segment of the working path; when it is determined that the failure has occurred outside the segment of the working path, said end node notifying the branch node (N2, N5). receiving control plane signalling at said end node (N1, N7) of the working path from a node along the working path, indicating that a failure has occurred along the working path; determining at said end node, from the received control plane signalling, if the failure has occurred outside the segment of the working path; when it is determined that the failure has occurred outside the segment of the working path, said end node notifying the branch node (N2, N5).
Autonomous device for detecting the characteristics of a measurement medium, more particularly a sensor unit for measuring the properties of a measurement medium, having a housing wherein the inside of the housing comprises: a sensor and a first microcontroller, wherein the first microcontroller has a memory chip which is not resistant to gamma rays, preferably during the sterilization of the device characterised in that the inside of the housing further comprises a second microcontroller wherein the second microcontroller comprises a memory chip which is resistant to gamma rays, preferably during sterilization of the device. a sensor and a first microcontroller, wherein the first microcontroller has a memory chip which is not resistant to gamma rays, preferably during the sterilization of the device characterised in that the inside of the housing further comprises a second microcontroller wherein the second microcontroller comprises a memory chip which is resistant to gamma rays, preferably during sterilization of the device.
Cleaning apparatus for cleaning articles to be cleaned, in particular a flight-type dishwashing machine, including at least one cleaning chamber and at least one conveying device, wherein the conveying device is set up to convey the articles to be cleaned in a conveying direction through the cleaning chamber, wherein the cleaning apparatus comprises at least one nozzle system for acting upon the articles to be cleaned with at least one cleaning fluid, wherein the cleaning apparatus additionally comprises at least one sensor for the articles to be cleaned, wherein the sensor for the articles to be cleaned is set up in order to detect a loading of the conveying device with articles to be cleaned, wherein the cleaning apparatus additionally comprises at least one control means and at least one display device, wherein the control means is set up in order to select at least one operating mode of the cleaning apparatus corresponding to the detected loading of the conveying device with the items to be cleaned and to propose the selected operating mode by means of the display device to a user of the cleaning apparatus, characterized in that the display device is set up to mark one or several tracks of the conveying device in a fashion visible to the user.
A spring steel consisting of, in % by mass: C: 0.50 to 0.70%, Si: 1.00 to 5.00%, Mn: 0.30 to 2.00%, P: 0.0002 to 0.0500%, S: 0.0002 to 0.0500%, Cr: 0.10 to 3.50%, Al: 0.0005 to 0.0500%, and N: 0.0020 to 0.0100%, with the balance being Fe and inevitable impurities, characterized in that an H-value defined by the following equation (a) is 160 or more, and an α-value defined by the following equation (b) is 3.25 or less: H = 33.6 C + 10.0 Si + 5.95 Mn + 11.1 Cr + 90.0 and α = Si / Mn wherein, [Si], [Mn], and [Cr] represent contents (% by mass) of the respective elements in the steel, further optionally comprising, in % by mass, one or more of: Mo: 0.01 to 1.00%, and V: 0.01 to 0.30%, wherein an H-value defined by the following equation (c) in place of the equation(a) is 173 or more: H = 33.6 C + 10.0 Si + 5.95 Mn + 11.1 Cr + 21.9 Mo + 34.0 V + 90.0 wherein, [Si], [Mn], [Cr], [Mo], and represent contents (% by mass) of the respective elements in the steel further optionally comprising, in % by mass: Nb: 0.001 to 0.200% and/or further optionally comprising, in % by mass, one or more of: Ca: 0.0002 to 0.0100%, Mg: 0.0002 to 0.0100%, and Zr: 0.0005 to 0.1000%. C: 0.50 to 0.70%, Si: 1.00 to 5.00%, Mn: 0.30 to 2.00%, P: 0.0002 to 0.0500%, S: 0.0002 to 0.0500%, Cr: 0.10 to 3.50%, Al: 0.0005 to 0.0500%, and N: 0.0020 to 0.0100%, Mo: 0.01 to 1.00%, and V: 0.01 to 0.30%, Nb: 0.001 to 0.200% and/or Ca: 0.0002 to 0.0100%, Mg: 0.0002 to 0.0100%, and Zr: 0.0005 to 0.1000%.
A method for manufacturing a porous material including a calcium carbonate, the method comprising: a digestion carbonation process of causing digestion and carbonation of a porous material including a calcium oxide in a presence of gaseous water and under a flow of a gas including carbon dioxide to obtain the porous material including the calcium carbonate.
A method for treating a medical implant, which is provided for implantation in an animal body and/or a human body, comprising the steps: - applying at least one coating (12, 12', 12") by way of plasma polymerization in the presence of oxygen and at least one saturated hydrocarbon onto at least a portion of a surface (14, 16) of the implant, characterized in that the coating (12, 12', 12") is treated with at least one reducing agent selected from the group comprising sodium borohydride, tris(hydroxymethyl)aminomethane (TRIS), ethanolamine and glycine. - applying at least one coating (12, 12', 12") by way of plasma polymerization in the presence of oxygen and at least one saturated hydrocarbon onto at least a portion of a surface (14, 16) of the implant, characterized in that the coating (12, 12', 12") is treated with at least one reducing agent selected from the group comprising sodium borohydride, tris(hydroxymethyl)aminomethane (TRIS), ethanolamine and glycine.
An agent delivery catheter, comprising a first hollow tube and a second hollow tube which protrudes from a distal opening of the first hollow tube and defines an agent delivery lumen extending along the entire length of the catheter, wherein: the distal end of the first tube is coupled to the second tube to form an annular cavity between the first tube and the second tube, the annular cavity being configured to accommodate a retractable stylet shaft, characterized in that a ceramic member which is disposed at the distal end of the first tube encompasses the second tube and couples the first tube to the second tube, and wherein a protective shrink-fit tube is disposed radially on the outside of the ceramic member and extends over at least the length of the ceramic member.
A processor-implemented method for authenticating humans based on their behavioral pattern, the method comprising: receiving sensor data using a plurality of sensors relating to a human; identifying a corrupt sensor data in the received sensor data, wherein the corrupt sensor data is identified by referring to gaps in the received sensor data that is caused due to sensor failure; substituting the identified corrupt sensor data in the received sensor data with a correct sensor data using Long Short-Term Memory (LSTM), to generate corrected sensor data; generating a semantic vector representation of the corrected sensor data; optimizing size of the semantic vector representation of the corrected sensor data to generate an optimized vector data using an auto encoder; predicting a behavior time series from the optimized vector data using a Long Short-Term Memory techniques; generating an error signal based on the behavior time series; providing a classifier for classification; and authenticating and identifying humans using the classifier based on the error signal. receiving sensor data using a plurality of sensors relating to a human; identifying a corrupt sensor data in the received sensor data, wherein the corrupt sensor data is identified by referring to gaps in the received sensor data that is caused due to sensor failure; substituting the identified corrupt sensor data in the received sensor data with a correct sensor data using Long Short-Term Memory (LSTM), to generate corrected sensor data; generating a semantic vector representation of the corrected sensor data; optimizing size of the semantic vector representation of the corrected sensor data to generate an optimized vector data using an auto encoder; predicting a behavior time series from the optimized vector data using a Long Short-Term Memory techniques; generating an error signal based on the behavior time series; providing a classifier for classification; and authenticating and identifying humans using the classifier based on the error signal.
A heel for absorbing shocks, having a shock absorber and attached to a high heel shoe, comprising: an outer heel fixed to a lower rear surface of a shole of the high heel shoe; an inner heel inserted and coupled into the outer heel and including an inner heel upper portion formed at an upper side, an inner heel lower portion formed at a lower side, and a stepped portion formed to have a larger diameter than the inner heel upper portion between the inner heel upper portion and the inner heel lower portion; an elastic spring positioned inside the outer heel, fitted over the inner heel upper portion, and stuck to an upper portion of the stepped portion to be compressed when the outer heel descends; a top piece coupled to a lower end of the inner heel lower portion and supported on a ground; and a fastening cover positioned over the inner heel and having an upper hole with an open upper surface, the inner heel and the elastic spring inserted into the fastening cover, characterized in that the inner heel includes the inner heel upper portion and the inner heel lower portion separately formed, and wherein a fitting portion protrudes from a lower portion of the stepped portion to be fitted into an upper portion of the inner heel lower portion. an outer heel fixed to a lower rear surface of a shole of the high heel shoe; an inner heel inserted and coupled into the outer heel and including an inner heel upper portion formed at an upper side, an inner heel lower portion formed at a lower side, and a stepped portion formed to have a larger diameter than the inner heel upper portion between the inner heel upper portion and the inner heel lower portion; an elastic spring positioned inside the outer heel, fitted over the inner heel upper portion, and stuck to an upper portion of the stepped portion to be compressed when the outer heel descends; a top piece coupled to a lower end of the inner heel lower portion and supported on a ground; and a fastening cover positioned over the inner heel and having an upper hole with an open upper surface, the inner heel and the elastic spring inserted into the fastening cover, characterized in that the inner heel includes the inner heel upper portion and the inner heel lower portion separately formed, and wherein a fitting portion protrudes from a lower portion of the stepped portion to be fitted into an upper portion of the inner heel lower portion.
A vehicle engine automatic control device, comprising: a brake operation amount detecting means that is configured to detect an amount of brake operation by a driver; an engine stopping/re-starting means that, during coast drive, is configured to stop an engine based on the amount of brake operation that is detected, and, after the engine stops, re-start the engine when the amount of brake operation that is detected falls below a first threshold; and a first threshold setting means that is configured to set the first threshold smaller as vehicle speed lowers. a brake operation amount detecting means that is configured to detect an amount of brake operation by a driver; an engine stopping/re-starting means that, during coast drive, is configured to stop an engine based on the amount of brake operation that is detected, and, after the engine stops, re-start the engine when the amount of brake operation that is detected falls below a first threshold; and a first threshold setting means that is configured to set the first threshold smaller as vehicle speed lowers.
A method for applying a film on a stack of goods, in particular for shrink-fitting a film on a stack of goods, wherein the stack of goods comprises at least one unit, wherein a film sleeve is first placed around sides of the stack of goods, said sides lying adjacent to one another around the periphery of the stack of goods, wherein projecting portions of the film sleeve projecting above the upper edges of the stack of goods are folded over onto the upper side of the stack of goods, wherein the film top sheet is then placed onto the upper side of the stack of goods, wherein the film top sheet projects with film portions beyond the upper edges of the stack of goods, characterised in that a pressure plate is then pressed on the upper side of the stack of goods or on the film top sheet lying on said stack of goods, that hot air is then generated which ascends along the sides of the stack of goods and heats the projecting film portions of the film top sheet in such a way that the film portions are welded to the film sleeve lying adjacent to the sides of the stack of goods, wherein the film portions initially hanging down at the upper edges of the stack of goods are lifted by means of the ascending hot air, fall back again onto the sides of the stack of goods as a result of the heating thus occurring and weld there with the heated sleeve portions.
A compound for use as an imaging agent selected from: a) b) Hydrochloride salt of the following compound of the structure 1-(2-(4-(2-[ 18 F]fluoroethoxy)phenyl)-2-hydroxyethyl)guanidinium Chloride; c) Hydrochloride salt of the following compound of the structure 1-(4-(2-[ 18 F]Fluoroethoxy)phenethyl)guanidinium Chloride; or d) Trifluoroacetate salt of the following compound of the structure 3-Chloro-4-(2-[ 18 F]fluoroethoxy)phenethylguanidinium Trifluoroacetate; wherein F is 18F; or a compound having the structure: optionally, when present, F is 18 F. a) b) Hydrochloride salt of the following compound of the structure 1-(2-(4-(2-[ 18 F]fluoroethoxy)phenyl)-2-hydroxyethyl)guanidinium Chloride; c) Hydrochloride salt of the following compound of the structure 1-(4-(2-[ 18 F]Fluoroethoxy)phenethyl)guanidinium Chloride; or d) Trifluoroacetate salt of the following compound of the structure 3-Chloro-4-(2-[ 18 F]fluoroethoxy)phenethylguanidinium Trifluoroacetate; wherein F is 18F; or a compound having the structure: optionally, when present, F is 18 F.