mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method of an electronic article comprising: (a) providing a silicone composition for use as a temporary bonding adhesive comprising: (A) a polydiorganosiloxane having at least two alkenyl groups in each molecule; (B) a polyorganosiloxane having at least one silicon-bonded hydrogen atom in each molecule; and (C) a thermally expandable powder having an expansion ratio of 10 or more, and an average particle diameter of component in the range of 1 to 60 μm prior to expansion and 10 to 660 μm after expansion, (b) coating the silicone composition on at least a part of the surface of an intermediate of an electronic article; (c) forming a cured body by curing the silicone composition coated on the intermediate; (d) surface treating the intermediate on which the cured body is formed; and (e) removing the cured body from the intermediate wherein the step of removing comprises expansion of the thermally expandable powder (C) of the silicone composition. (a) providing a silicone composition for use as a temporary bonding adhesive comprising: (A) a polydiorganosiloxane having at least two alkenyl groups in each molecule; (B) a polyorganosiloxane having at least one silicon-bonded hydrogen atom in each molecule; and (C) a thermally expandable powder having an expansion ratio of 10 or more, and an average particle diameter of component in the range of 1 to 60 μm prior to expansion and 10 to 660 μm after expansion, (A) a polydiorganosiloxane having at least two alkenyl groups in each molecule; (B) a polyorganosiloxane having at least one silicon-bonded hydrogen atom in each molecule; and (C) a thermally expandable powder having an expansion ratio of 10 or more, and an average particle diameter of component in the range of 1 to 60 μm prior to expansion and 10 to 660 μm after expansion, (b) coating the silicone composition on at least a part of the surface of an intermediate of an electronic article; (c) forming a cured body by curing the silicone composition coated on the intermediate; (d) surface treating the intermediate on which the cured body is formed; and (e) removing the cured body from the intermediate wherein the step of removing comprises expansion of the thermally expandable powder (C) of the silicone composition.
A connection structure between a first metal rod (3, 23, 33a-33e) comprising a first metal and a second metal rod comprising a second metal, wherein a multi-thread coil formed by winding first element wires comprising the first metal, and second element wires comprising the second metal is arranged, the multi-thread coil bestriding the first metal rod (3, 23, 33a-33e) and the second metal rod , and the first metal rod (3, 23, 33a-33e) is connected to the first element wires of the multi-thread coil , and the second metal rod is connected to the second element wires of the multi-thread coil , wherein the first element wires and the second element wires are arranged around cross-sectional circumferences at an equal angle so as to cover the entire cross-sectional circumferences of the first metal rod (3, 23, 33a-33e) and the second metal rod . a multi-thread coil formed by winding first element wires comprising the first metal, and second element wires comprising the second metal is arranged, the multi-thread coil bestriding the first metal rod (3, 23, 33a-33e) and the second metal rod , and the first metal rod (3, 23, 33a-33e) is connected to the first element wires of the multi-thread coil , and the second metal rod is connected to the second element wires of the multi-thread coil , wherein the first element wires and the second element wires are arranged around cross-sectional circumferences at an equal angle so as to cover the entire cross-sectional circumferences of the first metal rod (3, 23, 33a-33e) and the second metal rod .
A wireless communication system , comprising a radio access network, RAN, the RAN including a plurality of RAN entities being respective transmitters and receivers, the plurality of RAN entities comprising one or more base stations, gNBs, and/or one or more user devices, UEs, and a core network, CN, coupled to the RAN , wherein an application server is connectable to the CN , the application server configured to run an application providing a certain service to a receiver in the RAN with a certain Quality-of-Service, QoS, wherein the wireless communication system is configured to obtain a RAN status of at least a part of the RAN , and to inform the application server or the receiver configured to run the certain service about the RAN status, the RAN status indicating that the certain QoS cannot be fulfilled by the RAN , characterized in that the RAN status indicates QoS requirements achievable in the RAN so as to allow the application server or the receiver to adapt to changes in achievable QoS. a radio access network, RAN, the RAN including a plurality of RAN entities being respective transmitters and receivers, the plurality of RAN entities comprising one or more base stations, gNBs, and/or one or more user devices, UEs, and a core network, CN, coupled to the RAN , wherein an application server is connectable to the CN , the application server configured to run an application providing a certain service to a receiver in the RAN with a certain Quality-of-Service, QoS, wherein the wireless communication system is configured to obtain a RAN status of at least a part of the RAN , and to inform the application server or the receiver configured to run the certain service about the RAN status, the RAN status indicating that the certain QoS cannot be fulfilled by the RAN , characterized in that the RAN status indicates QoS requirements achievable in the RAN so as to allow the application server or the receiver to adapt to changes in achievable QoS.
Light strip system for holding and supplying power to lighting units and/or sensor units, wherein the system comprises: • an elongated support structure for holding the units , said support structure being formed by one or more substantially U-shaped support rail(s) , and also • power supply means extending along the support structure for supplying power to the units , wherein the power supply means comprise: • first lines extending along the support structure, which form a first power supply circuit (I), • second lines extending along the support structure over part of the length of the first power supply circuit (I) and forming a second power supply circuit (II), wherein the coupling between the first power supply circuit (I) and the second power supply circuit (II) is effected by a converter unit which converts a first supply voltage available in the first power supply circuit (I) into a second supply voltage suitable for operating the units , and wherein the lines of the second power supply circuit (II) are arranged freely accessible to the units from a mounting side of the support structure, characterized in that the lines of the second power supply circuit (II) are arranged in the region of the opening of the support rail(s) . • an elongated support structure for holding the units , said support structure being formed by one or more substantially U-shaped support rail(s) , and also • power supply means extending along the support structure for supplying power to the units , • first lines extending along the support structure, which form a first power supply circuit (I), • second lines extending along the support structure over part of the length of the first power supply circuit (I) and forming a second power supply circuit (II),
An adjustment device for exercise apparatuses, comprising a flange , a flange protrusion being provided on the flange to be inserted in a side wall of an exercise apparatus, a coupling body coupled to said flange , a vertical arm connected to said coupling body so as to be adjusted in the back and forth direction and rotationally with respect to said coupling body , and a coupling arm connected to said vertical arm , characterized in that the device further comprises: adjustment holes being opened on the flange protrusion at defined intervals, wherein the coupling body is configured to be coupled to said flange by means of a pressure bar , an adjustment protrusion which is configured to be placed into said adjustment holes after depression by the user of a pressure pin ; a channel being provided on said coupling body , wherein the channel has a width and depth to receive the pressure bar in a movable manner, and a coupling ring through which the coupling body is passed for covering the pressure bar and the channel .
A polypeptide, wherein the polypeptide is selected from: SEQ ID NOs: 177, 184, and 191-195.
A method for quantifying the number of target nucleic acids in a sample in relation to KIF11 nucleic acids in said sample, comprising: 1. amplifying KIF11 nucleic acids comprised in the sample using a KIF11-specific primer pair in a KIF11 amplification reaction, i. wherein each of the members of the KIF11-specific primer pair is -independently from each other- complementary to a KIF11 region located in an exon, intron, or the non-coding sequence of the KIF11 gene; ii. wherein the KIF11 amplification reaction is performed in the presence of a KIF11 detectable probe; 2. detecting a signal produced by the KIF11 detectable probe in the KIF11 amplification reaction; 3. quantifying the signal of 2.; 4. amplifying the target nucleic acids from the sample using a target-specific primer pair in a target amplification reaction; wherein the target amplification reaction is performed in the presence of a target detectable probe; and 5. detecting a signal produced by the target detectable probe in the target amplification reaction; 6. quantifying the signal of 5.; 7. normalizing the quantified signal of 6. to the quantified signal of 3., thereby quantifying the number of target nucleic acids in a sample in relation to KIF11 nucleic acids in the sample. 1. amplifying KIF11 nucleic acids comprised in the sample using a KIF11-specific primer pair in a KIF11 amplification reaction, i. wherein each of the members of the KIF11-specific primer pair is -independently from each other- complementary to a KIF11 region located in an exon, intron, or the non-coding sequence of the KIF11 gene; ii. wherein the KIF11 amplification reaction is performed in the presence of a KIF11 detectable probe; i. wherein each of the members of the KIF11-specific primer pair is -independently from each other- complementary to a KIF11 region located in an exon, intron, or the non-coding sequence of the KIF11 gene; ii. wherein the KIF11 amplification reaction is performed in the presence of a KIF11 detectable probe; 2. detecting a signal produced by the KIF11 detectable probe in the KIF11 amplification reaction; 3. quantifying the signal of 2.; 4. amplifying the target nucleic acids from the sample using a target-specific primer pair in a target amplification reaction; wherein the target amplification reaction is performed in the presence of a target detectable probe; and 5. detecting a signal produced by the target detectable probe in the target amplification reaction; 6. quantifying the signal of 5.; 7. normalizing the quantified signal of 6. to the quantified signal of 3., thereby quantifying the number of target nucleic acids in a sample in relation to KIF11 nucleic acids in the sample.
An isolated peptide consisting of the sequence CDWLPKPNMSASC (SEQ ID NO. 37) or a conservative substitutive variant thereof for use in treating an angiogenesis-dependent disease or disorder in a subject in need thereof, wherein the peptide is flanked by 0-1 amino acid residues on either terminus or both termini, and wherein the isolated peptide is capable of activating p53 and/or inducing Tsp-1 expression.
A Staphylococcus aureus strain devoid of prophages and plasmids, characterized in that it is a Staphylococcus aureus 6409wphwpl strain deposited in the PCM as B/00073.
A multifunction apparatus comprising: a reading unit configured to read a document according to an execution instruction for a predetermined image process; an image processing unit configured to perform the predetermined image process to image data obtained by the reading unit ; and a clock controller configured to control an image transfer clock for transferring the image data of the document to the image processing unit from the reading unit , wherein the clock controller is configured to set a frequency of the image transfer clock to a predetermined frequency in a case where the predetermined image process is executed independently, and wherein the clock controller is configured to set the frequency of the image transfer clock to a frequency lower than the predetermined frequency in a case where the predetermined image process is executed in parallel with at least one other image process that differs from the predetermined image process. a reading unit configured to read a document according to an execution instruction for a predetermined image process; an image processing unit configured to perform the predetermined image process to image data obtained by the reading unit ; and a clock controller configured to control an image transfer clock for transferring the image data of the document to the image processing unit from the reading unit , wherein the clock controller is configured to set a frequency of the image transfer clock to a predetermined frequency in a case where the predetermined image process is executed independently, and wherein the clock controller is configured to set the frequency of the image transfer clock to a frequency lower than the predetermined frequency in a case where the predetermined image process is executed in parallel with at least one other image process that differs from the predetermined image process.
A method for connecting sheet metal parts to form a lamination stack in which sheet metal parts are stamped out from an electric strip that is coated with an activatable adhesive layer , more particularly a hot-melt adhesive layer, on at least one of its flat sides and the stamped-out sheet metal parts are stacked and glued to form lamination stacks , wherein before the sheet metal parts are stamped out, the electric strip is embossed in a first sub-region (5.1), which produces multiple protruding spacers (20.1, 20.2) on at least one flat side of the electrical strip , which spacers (20.1, 20.2), after a first sheet metal part is stamped out from this first sub-region (5.1), facilitate a detachment of the stacked and glued sheet metal parts into lamination stacks , characterized in that in the first sub-region (5.1), spacers (20.1, 20.2) protruding from both flat sides of the electric strip are produced by means of embossing, and in that the first sheet metal part with the spacers (20.1, 20.2) protruding from both sides is provided as a dividing element (10.1, 10.2, 10.3) that is separate from the lamination stacks and is positioned between the sheet metal parts that are glued to one another. sheet metal parts are stamped out from an electric strip that is coated with an activatable adhesive layer , more particularly a hot-melt adhesive layer, on at least one of its flat sides and the stamped-out sheet metal parts are stacked and glued to form lamination stacks , wherein before the sheet metal parts are stamped out, the electric strip is embossed in a first sub-region (5.1), which produces multiple protruding spacers (20.1, 20.2) on at least one flat side of the electrical strip , which spacers (20.1, 20.2), after a first sheet metal part is stamped out from this first sub-region (5.1), facilitate a detachment of the stacked and glued sheet metal parts into lamination stacks ,
A method of designing and manufacturing a customized orthodontic bracket , the method comprising the steps of : a) storing a digital representation of portions of a patient's dentition in a computer; b) accessing a library of virtual three-dimensional bracket bodies in said computer; c) determining the shape and configuration of a bracket bonding pad , said bracket bonding pad having a tooth-facing surface conforming substantially to corresponding three-dimensional surfaces of a tooth of the patient; d) combining a bracket body from said library of bracket bodies with said bracket bonding pad to thereby create an individual, customized orthodontic bracket; and e) exporting digital data representing said customized orthodontic bracket from said computer to a manufacturing system for manufacturing said customized orthodontic bracket . a) storing a digital representation of portions of a patient's dentition in a computer; b) accessing a library of virtual three-dimensional bracket bodies in said computer; c) determining the shape and configuration of a bracket bonding pad , said bracket bonding pad having a tooth-facing surface conforming substantially to corresponding three-dimensional surfaces of a tooth of the patient; d) combining a bracket body from said library of bracket bodies with said bracket bonding pad to thereby create an individual, customized orthodontic bracket; and e) exporting digital data representing said customized orthodontic bracket from said computer to a manufacturing system for manufacturing said customized orthodontic bracket .
A device comprising: a transmission processing unit configured to set each of transmission signal sequences of a plurality of power layers that are to be multiplexed using power allocation as a target and apply at least one of a scrambler using a scramble pattern and an interleaver using an interleave pattern corresponding to information regarding the power allocation.
A logic circuitry package for a replaceable print apparatus component comprising an interface to communicate with a print apparatus logic circuit, and at least one logic circuit comprising: a memory storing at least one temperature calculation parameter ; wherein the at least one logic circuit is configured to: receive, via the interface, a first request to read the at least one temperature calculation parameter ; transmit, via the interface, the at least one temperature calculation parameter in response to the first request ; receive, via the interface, a second request corresponding to a sensor ID ; and transmit, via the interface, a digital value in response to the second request 908); wherein the digital value, adjusted based on the at least one temperature calculation parameter, corresponds to an absolute temperature of the print apparatus component. a memory storing at least one temperature calculation parameter ; wherein the at least one logic circuit is configured to: receive, via the interface, a first request to read the at least one temperature calculation parameter ; transmit, via the interface, the at least one temperature calculation parameter in response to the first request ; receive, via the interface, a second request corresponding to a sensor ID ; and transmit, via the interface, a digital value in response to the second request 908); wherein the digital value, adjusted based on the at least one temperature calculation parameter, corresponds to an absolute temperature of the print apparatus component. receive, via the interface, a first request to read the at least one temperature calculation parameter ; transmit, via the interface, the at least one temperature calculation parameter in response to the first request ; receive, via the interface, a second request corresponding to a sensor ID ; and transmit, via the interface, a digital value in response to the second request 908); wherein the digital value, adjusted based on the at least one temperature calculation parameter, corresponds to an absolute temperature of the print apparatus component.
An apparatus at an intrusion detection system of an autonomous system , the autonomous system includes a first control system and a second control system , the apparatus comprising: a processor circuitry ; and a memory arranged to be communicatively coupled to the processor circuitry, and to store instructions, which when executed by the processor circuitry, cause the processor circuitry to: receive a context associated with the autonomous system; receive a contract associated with the context, the contract comprising an indication of at least one expectation relative to the context for the autonomous system, and at least one acceptable action relative to the context for responding to an attack on the autonomous system, wherein the contract is configured to be used for responding to the attack when the first control system is compromised or disconnected from the autonomous system; detect the attack on the autonomous system, in which the attack causes the first control system to be compromised or disconnected from the autonomous system; generate, responsive to the attack, at least one command according to the contract; and send the generated command to the second control system of the autonomous system for responding to the attack. a processor circuitry ; and a memory arranged to be communicatively coupled to the processor circuitry, and to store instructions, which when executed by the processor circuitry, cause the processor circuitry to: receive a context associated with the autonomous system; receive a contract associated with the context, the contract comprising an indication of at least one expectation relative to the context for the autonomous system, and at least one acceptable action relative to the context for responding to an attack on the autonomous system, wherein the contract is configured to be used for responding to the attack when the first control system is compromised or disconnected from the autonomous system; detect the attack on the autonomous system, in which the attack causes the first control system to be compromised or disconnected from the autonomous system; generate, responsive to the attack, at least one command according to the contract; and send the generated command to the second control system of the autonomous system for responding to the attack. receive a context associated with the autonomous system; receive a contract associated with the context, the contract comprising an indication of at least one expectation relative to the context for the autonomous system, and at least one acceptable action relative to the context for responding to an attack on the autonomous system, wherein the contract is configured to be used for responding to the attack when the first control system is compromised or disconnected from the autonomous system; detect the attack on the autonomous system, in which the attack causes the first control system to be compromised or disconnected from the autonomous system; generate, responsive to the attack, at least one command according to the contract; and send the generated command to the second control system of the autonomous system for responding to the attack.
A method for recycling bituminous materials from roofing material manufacture and/or from bitumen-bonded scrap roofing materials, wherein heating and/or pressing of the roofing materials is performed, characterized in that the roofing material is shredded to a particle size of 20-300 mm, the roofing material is excessively tempered to a temperature of up to 220 °C in a melt vessel during an induced movement of the material to be mixed, the heated roofing material is then melted and/or pressed, the bitumen material that has melted out and/or been pressed out is filtered using a filter with a hole size of 120 μm, fresh bitumen is added to the bitumen material in a proportion of 25-30 %, the bitumen material is cooled in a belt conveyor system and subsequently coated with a separating agent and granulated, or the bitumen material is cast into a block shape and/or suitable additives are mixed into the bitumen material.