mhurhangee/ep-ind-claims huggingface dataset:
A two-pack type epoxy resin composition for a fiber-reinforced composite material, comprising components to below, the epoxy resin composition comprising: an epoxy base resin liquid which comprises 30 mass% or more and 100 mass% or less of a component; and a curing agent liquid which comprises a component, wherein, the component is a glycidylamine type epoxy resin; the component is an aromatic amine; and the component is a compound having at least two aromatic rings each of which has a phenolic hydroxy group, wherein the component is a mixture of a liquid aromatic amine and a solid aromatic amine, wherein the term 'liquid' refers to a state where a viscosity at 25°C is 1000 Pa•s or lower and wherein the term 'solid' refers to a state where a viscosity at 25°C is higher than 1000 Pa•s where viscosity is measured using the JIS Z8803 method described in the present specification. an epoxy base resin liquid which comprises 30 mass% or more and 100 mass% or less of a component; and a curing agent liquid which comprises a component, wherein, the component is a glycidylamine type epoxy resin; the component is an aromatic amine; and the component is a compound having at least two aromatic rings each of which has a phenolic hydroxy group, wherein the component is a mixture of a liquid aromatic amine and a solid aromatic amine, wherein the term 'liquid' refers to a state where a viscosity at 25°C is 1000 Pa•s or lower and wherein the term 'solid' refers to a state where a viscosity at 25°C is higher than 1000 Pa•s where viscosity is measured using the JIS Z8803 method described in the present specification.
Robot, particularly painting robot or handling robot of a painting installation for painting motor vehicle body components, with a) several gear boxes (1, 1.1-1.4), each with a1) a gear box housing which is filled at least in part during operation with a lubricant with an operation-dependent lubricant pressure in order to lubricate the robot gear (1, 1.1-1.4), and a2) a pressure maximum for the lubricant pressure depending on the construction and design, wherein the gear box is leaky when the lubricant pressure in the gear box exceeds the pressure maximum, and b) a pressure compensation device, which is fluidically connected with the robot gears (1, 1.1-1.4) of the robot and effects a pressure compensation in each of the robot gears (1, 1.1-1.4) and thereby prevents that the lubricant pressure in the gear box exceeds the pressure maximum. a) several gear boxes (1, 1.1-1.4), each with a1) a gear box housing which is filled at least in part during operation with a lubricant with an operation-dependent lubricant pressure in order to lubricate the robot gear (1, 1.1-1.4), and a2) a pressure maximum for the lubricant pressure depending on the construction and design, wherein the gear box is leaky when the lubricant pressure in the gear box exceeds the pressure maximum, and a1) a gear box housing which is filled at least in part during operation with a lubricant with an operation-dependent lubricant pressure in order to lubricate the robot gear (1, 1.1-1.4), and a2) a pressure maximum for the lubricant pressure depending on the construction and design, wherein the gear box is leaky when the lubricant pressure in the gear box exceeds the pressure maximum, and b) a pressure compensation device, which is fluidically connected with the robot gears (1, 1.1-1.4) of the robot and effects a pressure compensation in each of the robot gears (1, 1.1-1.4) and thereby prevents that the lubricant pressure in the gear box exceeds the pressure maximum.
A method, comprising: receiving antenna current samples (114A, 114B) at a diagnostic monitoring block (291, 292); receiving a diagnostic parameter at the diagnostic monitoring block, the diagnostic parameter being indicative of a short circuit; using the diagnostic parameter to generate a diagnostic error indicator; and determining whether to disable a driver circuit based on the diagnostic error indicator, wherein: determining whether to disable the driver circuit based on the diagnostic error indicator includes: determining whether a maximum of the antenna current samples is greater than the diagnostic parameter times an average of the antenna current samples. receiving antenna current samples (114A, 114B) at a diagnostic monitoring block (291, 292); receiving a diagnostic parameter at the diagnostic monitoring block, the diagnostic parameter being indicative of a short circuit; using the diagnostic parameter to generate a diagnostic error indicator; and
An epoxy system, comprising: a Part A having an epoxy resin component present in a range of 20 weight percent (wt%) to 70 wt%, based on a total weight of the Part A; a flexibilizer present in a range from 20 wt% to 60 wt%, based on the total weight of the Part A, wherein the flexibilizer includes a blocked isocyanate prepolymer present in a range of 5 wt% to 8 wt%, based on the total weight of the Part A; and a catalyst present in a range of 3 wt% to 7 wt% based on the total weight of the Part A, wherein the catalyst comprises methyl p-toluenesulfate, and wherein the wt% of components of the Part A of the epoxy system totals 100 wt%; and a Part B having a Mannich base hardener. a Part A having an epoxy resin component present in a range of 20 weight percent (wt%) to 70 wt%, based on a total weight of the Part A; a flexibilizer present in a range from 20 wt% to 60 wt%, based on the total weight of the Part A, wherein the flexibilizer includes a blocked isocyanate prepolymer present in a range of 5 wt% to 8 wt%, based on the total weight of the Part A; and a catalyst present in a range of 3 wt% to 7 wt% based on the total weight of the Part A, wherein the catalyst comprises methyl p-toluenesulfate, and wherein the wt% of components of the Part A of the epoxy system totals 100 wt%; and a Part B having a Mannich base hardener.
A display apparatus, comprising: a content processor arranged to process a first media content from among a plurality of media contents; a communication unit for communicating with a plurality of terminals; and a controller arranged to assign a first address to the first media content in response to a request for the first media content, and to control the communication unit to stream the first media content processed by the content processor to a first terminal, of the plurality of terminals, based on the assigned first address. a content processor arranged to process a first media content from among a plurality of media contents; a communication unit for communicating with a plurality of terminals; and a controller arranged to assign a first address to the first media content in response to a request for the first media content, and to control the communication unit to stream the first media content processed by the content processor to a first terminal, of the plurality of terminals, based on the assigned first address.
A method for wireless communications by a user equipment, UE, comprising: performing radio link monitoring, RLM, based on reference signals, RS, transmitted using a first set of beams; performing beam failure recovery, BFR, monitoring based on transmissions using a second set of beams; and adjusting one or more radio link failure, RLF, parameters based on both the RLM monitoring and the BFR monitoring, wherein adjusting the one or more RLF parameters comprises adjusting an RLF detection threshold in response to detecting an in synchronization, IS, BFR event. performing radio link monitoring, RLM, based on reference signals, RS, transmitted using a first set of beams; performing beam failure recovery, BFR, monitoring based on transmissions using a second set of beams; and adjusting one or more radio link failure, RLF, parameters based on both the RLM monitoring and the BFR monitoring, wherein adjusting the one or more RLF parameters comprises adjusting an RLF detection threshold in response to detecting an in synchronization, IS, BFR event.
A method of making a polymer comprising: providing a condensation polyester having a first molecular weight; selecting a modifying monomer mix, wherein the modifying monomer mix comprises at least one monomer, wherein the at least one monomer is a molecule comprising more than two reactive hydroxyl groups, is capable of participating in transesterification reactions, and has a molecular weight of less than 1500, and wherein the modifying monomer mix does not comprise components derived from the condensation polyester; and transesterifying the modifying monomer mix with a predetermined amount of the condensation polyester, without degradation, to produce a final, cross-linked polymer having a second molecular weight which is greater than the first molecular weight. providing a condensation polyester having a first molecular weight; selecting a modifying monomer mix, wherein the modifying monomer mix comprises at least one monomer, wherein the at least one monomer is a molecule comprising more than two reactive hydroxyl groups, is capable of participating in transesterification reactions, and has a molecular weight of less than 1500, and wherein the modifying monomer mix does not comprise components derived from the condensation polyester; and transesterifying the modifying monomer mix with a predetermined amount of the condensation polyester, without degradation, to produce a final, cross-linked polymer having a second molecular weight which is greater than the first molecular weight.
Composition consisting of oxides of zirconium, of cerium, of yttrium, of lanthanum and of one or more additional rare earth(s) other than cerium, lanthanum and yttrium, chosen from the group formed by neodymium, praseodymium, gadolinilem and samarium, in a weight proportion of zirconium oxide of at least 25%, between 15% and 60% of cerium oxide, between 10% and 25% of yttrium oxide, between 2% and 10% of lanthanum oxide and between 2% and 15% of the oxide of the additional rare earth(s), having, after calcining in air for 10 hours at 1150°C, a specific surface area of at least 15 m 2 /g and also a cubic phase.
Rotary monitoring device, wherein a test specimen is clamped between a rotary plate and a rotationally-supported pressing part in such a way that the test specimen is rotated around its own axis when the rotary plate is rotated, wherein the device comprises: a unit for determining the target rotational speed of the rotary plate, a detection unit for determining the rotational speed of the pressing part and/or of the rotary plate, and a comparing unit for comparing the rotational speed of the pressing part and/or of the rotary plate, to the target rotational speed of the rotary plate, wherein the comparing unit is connected to the detection unit and configured to output an error signal if a certain difference between the target rotational speed of the rotary plate and the rotational speed of the pressing part and/or of the rotary plate is exceeded, characterized in that at least two stationary detection units are provided for determining the rotational speed of the pressing part and/or of the rotary plate, which are arranged next to one another so that the rotation of the pressing part and/or of the rotary plate can be detected along a longer path of a translational movement, and in that a magnetic pole ring is provided, which is arranged on the pressing part and/or the rotary plate in a rotationally-fixed manner, wherein the detection units for determining the rotational speed of the pressing part and/or of the rotary plate are magneto-resistive sensors for detecting the magnetic fields of the magnetic pole ring. a unit for determining the target rotational speed of the rotary plate, a detection unit for determining the rotational speed of the pressing part and/or of the rotary plate, and a comparing unit for comparing the rotational speed of the pressing part and/or of the rotary plate, to the target rotational speed of the rotary plate, wherein the comparing unit is connected to the detection unit and configured to output an error signal if a certain difference between the target rotational speed of the rotary plate and the rotational speed of the pressing part and/or of the rotary plate is exceeded, characterized in that at least two stationary detection units are provided for determining the rotational speed of the pressing part and/or of the rotary plate, which are arranged next to one another so that the rotation of the pressing part and/or of the rotary plate can be detected along a longer path of a translational movement, and in that a magnetic pole ring is provided, which is arranged on the pressing part and/or the rotary plate in a rotationally-fixed manner, wherein the detection units for determining the rotational speed of the pressing part and/or of the rotary plate are magneto-resistive sensors for detecting the magnetic fields of the magnetic pole ring.
Cooking apparatus comprising: - a cooking system having a cooking site (emp) configured to receive a food (ali) and comprising a heating element (ch) configured to head said food (ali), - a communication unit configured to exchange information with a remote terminal according to a communication protocol, the communication unit being configured to receive a cooking parameterisation information item (ipc) comprising a set of coefficients (C1, C2,..., Cn) corresponding to a time evolution of the temperature, - a control and command unit of the cooking system comprising a processor configured to regulate a cooking temperature (Te) of the heating element (ch) for a cooking time (t) according to a cooking setpoint (co), the control and command unit comprising a user interface provided with a selection command for selecting a food category (ca) from among a plurality of food categories (ca), the control and command unit being configured to be arranged in a first configuration (CONF1) in which the cooking setpoint (co) is dependent on the food category (ca) selected, or alternatively in a second configuration (CONF2), in which said cooking setpoint (co) is dependent on the set of coefficients (C1, C2,..., Cn) received by the communication unit. - a cooking system having a cooking site (emp) configured to receive a food (ali) and comprising a heating element (ch) configured to head said food (ali), - a communication unit configured to exchange information with a remote terminal according to a communication protocol, the communication unit being configured to receive a cooking parameterisation information item (ipc) comprising a set of coefficients (C1, C2,..., Cn) corresponding to a time evolution of the temperature, - a control and command unit of the cooking system comprising a processor configured to regulate a cooking temperature (Te) of the heating element (ch) for a cooking time (t) according to a cooking setpoint (co),
A high-pressure multibore junction assembly (100, 200, 300), comprising: a body (102, 202) with an upper end (104, 204, 304) and a lower end (106, 206); a tubular main leg (112, 212, 312) with an opening (130, 230) at one end for entry by a tool or another tool, wherein the main leg (112, 212, 312) includes a wall with a thickness based on an outside diameter (146, 246) of the body (102, 202) that increases a high-pressure rating for the multibore junction assembly (100, 200, 300); and a tubular lateral leg (128, 228, 328) with an opening (130, 230) at one end for entry by the tool or the another tool and another opening at another end, wherein the lateral leg (128, 228, 328) includes a wall with a thickness based on an outside diameter (146, 246) of the body that increases the high-pressure rating for the multibore junction assembly, further comprising a stabilizer (148, 248, 348, 358, 368) connected to the main leg (112, 212, 312) or the lateral leg (128, 228, 328) with an opening for receipt of the main leg (112, 212, 312) or the lateral leg (128, 228, 328). a body (102, 202) with an upper end (104, 204, 304) and a lower end (106, 206); a tubular main leg (112, 212, 312) with an opening (130, 230) at one end for entry by a tool or another tool, wherein the main leg (112, 212, 312) includes a wall with a thickness based on an outside diameter (146, 246) of the body (102, 202) that increases a high-pressure rating for the multibore junction assembly (100, 200, 300); and a tubular lateral leg (128, 228, 328) with an opening (130, 230) at one end for entry by the tool or the another tool and another opening at another end, wherein the lateral leg (128, 228, 328) includes a wall with a thickness based on an outside diameter (146, 246) of the body that increases the high-pressure rating for the multibore junction assembly, further comprising a stabilizer (148, 248, 348, 358, 368) connected to the main leg (112, 212, 312) or the lateral leg (128, 228, 328) with an opening for receipt of the main leg (112, 212, 312) or the lateral leg (128, 228, 328).
A composition suitable for use as replacement material for all or part of a disc nucleus pulposus, the composition being radiopaque, injectable, non-immunogenic, non-toxic, and cross-linked, wherein the composition is made by: (a) providing a cross-linkable protein hydrogel comprising a protein selected from the group consisting of: NH 2 - n6 -[(Sk) 2 (Es) 8] 17 - n7 -COOH and NH 2 n6 -[ 2 (Es) 4 Es'(Es) 3] 17 - n7 COOH wherein: U and Z represent sequences useful in cloning the protein; Sk represents GlyAlaGlyAlaGlySer (SEQ ID NO: 1); Es represents GlyValGlyValPro (SEQ ID NO: 2); Es' represents GlyLysGlyValPro (SEQ ID NO: 6) or GlyValGlyLysPro (SEQ ID NO: 7); n6 and n7 independently represent 0 or 1; wherein at least one of the sequences represented by Sk or Es is modified to comprise at least one crosslinkable amino acid residue; and wherein said protein hydrogel has a static compressive modulus of at least 10 kPa; and a dynamic compressive modulus of at least 10 kPa; (b) providing an iodinated contrast solution comprising an amount of an iodine compound; wherein the combination of the protein hydrogel and the iodinated contrast solution has a discernable radiopacity, and has a static or dynamic compressive modulus that is decreased compared to that of the protein hydrogel alone; (c) providing a crosslinker; and (d) crosslinking the composition with using the crosslinker provided in step (c) wherein the radiopaque crosslinked composition has a static compressive modulus of at least 10 kPa and a dynamic compressive modulus of at least 10 kPa. (a) providing a cross-linkable protein hydrogel comprising a protein selected from the group consisting of: NH 2 - n6 -[(Sk) 2 (Es) 8] 17 - n7 -COOH and NH 2 n6 -[ 2 (Es) 4 Es'(Es) 3] 17 - n7 COOH wherein: U and Z represent sequences useful in cloning the protein; Sk represents GlyAlaGlyAlaGlySer (SEQ ID NO: 1); Es represents GlyValGlyValPro (SEQ ID NO: 2); Es' represents GlyLysGlyValPro (SEQ ID NO: 6) or GlyValGlyLysPro (SEQ ID NO: 7); n6 and n7 independently represent 0 or 1; wherein at least one of the sequences represented by Sk or Es is modified to comprise at least one crosslinkable amino acid residue; and wherein said protein hydrogel has a static compressive modulus of at least 10 kPa; and a dynamic compressive modulus of at least 10 kPa; wherein: U and Z represent sequences useful in cloning the protein; Sk represents GlyAlaGlyAlaGlySer (SEQ ID NO: 1); Es represents GlyValGlyValPro (SEQ ID NO: 2); Es' represents GlyLysGlyValPro (SEQ ID NO: 6) or GlyValGlyLysPro (SEQ ID NO: 7); n6 and n7 independently represent 0 or 1; (b) providing an iodinated contrast solution comprising an amount of an iodine compound; wherein the combination of the protein hydrogel and the iodinated contrast solution has a discernable radiopacity, and has a static or dynamic compressive modulus that is decreased compared to that of the protein hydrogel alone; (c) providing a crosslinker; and (d) crosslinking the composition with using the crosslinker provided in step (c) wherein the radiopaque crosslinked composition has a static compressive modulus of at least 10 kPa and a dynamic compressive modulus of at least 10 kPa.
A method for operating an apparatus, comprising: storing a validity mask in a target page of memory cells, wherein the validity mask is associated with a first number of pages of memory cells in a group of pages, wherein the first number of pages of memory cells are a portion of a total number of pages in the group of pages, wherein the validity mask includes validity information (224, 226, 228, 230) that indicate a validity status for each page of the first number of pages of memory cells in the group of pages, and wherein the first number of pages of memory cells include the target page of memory cells, pages of memory cells that were written before the target page, and pages of memory cells that were written after the target page.
A vapor delivery system, comprising: a handle portion; an elongate flexible shaft connected to the handle portion; a vapor source; at least one vapor delivery port disposed on the elongate flexible shaft and fluidly coupled to the vapor source; and a needle tip configured to be retracted into the elongate flexible shaft during insertion into a patient and is configured to be advanced out of the elongate flexible shaft prior to vapor delivery, wherein the needle tip is designed to advance a limited distance from a distal catheter tip of the system so as to not fully penetrate through or puncture bladder tissue, wherein the elongate flexible shaft includes a distal anchor tip, and wherein the distal anchor tip comprises the needle tip. a handle portion; an elongate flexible shaft connected to the handle portion; a vapor source; at least one vapor delivery port disposed on the elongate flexible shaft and fluidly coupled to the vapor source; and a needle tip configured to be retracted into the elongate flexible shaft during insertion into a patient and is configured to be advanced out of the elongate flexible shaft prior to vapor delivery, wherein the needle tip is designed to advance a limited distance from a distal catheter tip of the system so as to not fully penetrate through or puncture bladder tissue, wherein the elongate flexible shaft includes a distal anchor tip, and wherein the distal anchor tip comprises the needle tip.