mhurhangee/patent-ind-claim-en huggingface dataset:
An epoxy resin composition selected from (i) and (ii): (i) an epoxy resin composition comprising components (A1) to (C1) described below, wherein the content of the component (B1) is 8 to 20 parts by mass relative to 100 parts by mass of the component (A1), and the content of the component (C1) is 12 to 110 parts by mass relative to 100 parts by mass of the component (A1): component (A1): an epoxy resin; component (B1): a boron trihalide-amine complex; and component (C1): rubber particles; and (ii) an epoxy resin composition comprising components (A2), (B2) and (D2) described below, wherein the content of the component (B2) is 8 to 20 parts by mass relative to 100 parts by mass of the component (A2), and the content of the component (D2) is 1 to 50 parts by mass relative to 100 parts by mass of the component (A2): component (A2): an epoxy resin; component (B2): a boron trihalide-amine complex; component (D2): a polymer which is compatible with an epoxy resin composition containing the components (A2) to (B2), and has a characteristic of forming, when an epoxy resin composition containing the component (D2) is cured, a phase separation structure in the cured product. (i) an epoxy resin composition comprising components (A1) to (C1) described below, wherein the content of the component (B1) is 8 to 20 parts by mass relative to 100 parts by mass of the component (A1), and the content of the component (C1) is 12 to 110 parts by mass relative to 100 parts by mass of the component (A1): component (A1): an epoxy resin; component (B1): a boron trihalide-amine complex; and component (C1): rubber particles; and component (A1): an epoxy resin; component (B1): a boron trihalide-amine complex; and component (C1): rubber particles; and (ii) an epoxy resin composition comprising components (A2), (B2) and (D2) described below, wherein the content of the component (B2) is 8 to 20 parts by mass relative to 100 parts by mass of the component (A2), and the content of the component (D2) is 1 to 50 parts by mass relative to 100 parts by mass of the component (A2): component (A2): an epoxy resin; component (B2): a boron trihalide-amine complex; component (D2): a polymer which is compatible with an epoxy resin composition containing the components (A2) to (B2), and has a characteristic of forming, when an epoxy resin composition containing the component (D2) is cured, a phase separation structure in the cured product. component (A2): an epoxy resin; component (B2): a boron trihalide-amine complex; component (D2): a polymer which is compatible with an epoxy resin composition containing the components (A2) to (B2), and has a characteristic of forming, when an epoxy resin composition containing the component (D2) is cured, a phase separation structure in the cured product.
A Coriolis flow sensor system comprising: a fluid flow assembly comprising: a flow tube configured to provide a flow path through the flow tube ; a mechanical drive assembly configured to drive an oscillation of the flow tube while fluid is flowing, wherein the mechanical drive assembly comprises an oscillation surface; and an interface fixedly coupled to the oscillation surface of the mechanical drive assembly and configured to receive the flow tube such that at least a portion of the interface is in direct contact with the flow tube and such that the interface transfers oscillation forces of the oscillation surface to the flow tube ; wherein the oscillation surface of the mechanical drive assembly comprises a plurality of anchor points for connecting the interface thereto, and the interface is coupled to the fluid flow assembly with one or more rib structures or with one or more wall features , disposed along the interface in a direction of the flow path. a flow tube configured to provide a flow path through the flow tube ; a mechanical drive assembly configured to drive an oscillation of the flow tube while fluid is flowing, wherein the mechanical drive assembly comprises an oscillation surface; and an interface fixedly coupled to the oscillation surface of the mechanical drive assembly and configured to receive the flow tube such that at least a portion of the interface is in direct contact with the flow tube and such that the interface transfers oscillation forces of the oscillation surface to the flow tube ; wherein the oscillation surface of the mechanical drive assembly comprises a plurality of anchor points for connecting the interface thereto, and the interface is coupled to the fluid flow assembly with one or more rib structures or with one or more wall features , disposed along the interface in a direction of the flow path.
Electric vehicle comprising a battery assembly with at least two rows (31-34) of battery cells attached to a battery frame structure , characterized in that the battery frame structure comprises a number of accommodating cavities , arranged in a matrix, each battery cell being placed in a respective accommodating cavity characterised in that each battery cell being connected to adjacent walls of the respective accommodating cavity via a flowable bonding substance being inserted in a gap between the cells and the walls of the respective cavity.
An homogeneous, solid, particulate composition comprising ammonium nitrate and 1.0 to 10 weight% of struvite.
A method for inspecting a volume and a composition of at least one, especially fluid, sample , comprising the steps of: - making available at least one pipette , in which at least one interface is formed between at least one sample and at least one fluid which is adjacent to the sample , said interface being optically perceptible outside the pipette in each case as an interface line between the at least one sample and the at least one fluid that extends essentially horizontally; - arranging at least one marking of a camera in an image field of the camera such that the marking and at least one first section of the at least one pipette are shown in a recorded image , the at least one pipette being arranged between a light source (20, 20a-20e) and the camera such that at least one spectrum of light beams (22-24) of the light source (20, 20a-20e) is recorded by the camera , which light beams have penetrated the sample ; - evaluating whether the marking in the recorded image matches the position of the at least one interface line in the at least first section ; - comparing the at least one recorded spectrum with at least one reference spectrum; and - determining whether the composition of the at least one sample according to the at least one recorded spectrum corresponds to that of the at least one reference spectrum. - making available at least one pipette , in which at least one interface is formed between at least one sample and at least one fluid which is adjacent to the sample , said interface being optically perceptible outside the pipette in each case as an interface line between the at least one sample and the at least one fluid that extends essentially horizontally; - arranging at least one marking of a camera in an image field of the camera such that the marking and at least one first section of the at least one pipette are shown in a recorded image , the at least one pipette being arranged between a light source (20, 20a-20e) and the camera such that at least one spectrum of light beams (22-24) of the light source (20, 20a-20e) is recorded by the camera , which light beams have penetrated the sample ; - evaluating whether the marking in the recorded image matches the position of the at least one interface line in the at least first section ; - comparing the at least one recorded spectrum with at least one reference spectrum; and - determining whether the composition of the at least one sample according to the at least one recorded spectrum corresponds to that of the at least one reference spectrum.
A wireless network communication method performed by a policy control network element, wherein the method comprises: sending information about a trigger to an access and mobility management network element, wherein the trigger is configured to notify the policy control network element of a connection management state of a terminal apparatus when the connection management state changes; receiving a notification message from the access and mobility management network element when the connection management state of the terminal apparatus changes to a connected mode; and sending policy rule information to the terminal apparatus when the notification message is used to notify the policy control network element that the connection management state of the terminal apparatus is the connected mode. sending information about a trigger to an access and mobility management network element, wherein the trigger is configured to notify the policy control network element of a connection management state of a terminal apparatus when the connection management state changes; receiving a notification message from the access and mobility management network element when the connection management state of the terminal apparatus changes to a connected mode; and sending policy rule information to the terminal apparatus when the notification message is used to notify the policy control network element that the connection management state of the terminal apparatus is the connected mode.
A method of wireless communication, comprising: coordinating , by a first base station, multi-connectivity communication for a user equipment, UE, with at least the first base station and a second base station; determining , by the first base station, a configuration of uplink transmit power for the UE in the multi-connectivity communication, the configuration including a first uplink transmit power value for transmissions to the first base station and a second uplink transmit power value for transmissions to the second base station; and transmitting , by the first base station to the UE, an indication of the configuration of uplink transmit power to allow the UE to dynamically adjust uplink transmit power between the first base station and the second base station based on a non-use of an uplink by the first base station or the second base station such that an allocation of uplink transmit power to the first base station is greater than the first uplink transmit power value or an allocation of uplink transmit power to the second base station is greater than the second uplink transmit power value subject to a maximum transmit power for the UE, wherein the indication is based on an uplink configuration of the first base station or the second base station when the first base station or the second base station operates in a time division duplex, TDD mode. coordinating , by a first base station, multi-connectivity communication for a user equipment, UE, with at least the first base station and a second base station; determining , by the first base station, a configuration of uplink transmit power for the UE in the multi-connectivity communication, the configuration including a first uplink transmit power value for transmissions to the first base station and a second uplink transmit power value for transmissions to the second base station; and transmitting , by the first base station to the UE, an indication of the configuration of uplink transmit power to allow the UE to dynamically adjust uplink transmit power between the first base station and the second base station based on a non-use of an uplink by the first base station or the second base station such that an allocation of uplink transmit power to the first base station is greater than the first uplink transmit power value or an allocation of uplink transmit power to the second base station is greater than the second uplink transmit power value subject to a maximum transmit power for the UE, wherein the indication is based on an uplink configuration of the first base station or the second base station when the first base station or the second base station operates in a time division duplex, TDD mode.
A computer program comprising instructions which, when the program is executed by a computer, cause the computer to carry out a computer-implemented medical method of adapting a biomechanical model of an anatomical body part of a patient to a current status of the patient, the method comprising the following steps: a) initial biomechanical model data is acquired (S1) which describes an initial biomechanical model of the anatomical body part; b) workflow step data is acquired (S2) which describes a current step of a workflow of a procedure to be carried out on the patient; c) status change data is determined (S3) based on the workflow step data and the initial biomechanical model data, wherein the status change data describes a change in the patient's status, the change in the patient's status is a change in at least one of a position or the geometry of the patient's body; d) model adaptation data is acquired (S4) which describes an association between the change in the patient's status and an adaptation to be applied to the initial biomechanical model; e) adapted biomechanical model data is determined (S5) based on the initial biomechanical model data and the status change data and the model adaptation data, wherein the adapted biomechanical model data describes an adapted biomechanical model which is determined by applying the adaptation to the initial biomechanical model, the method being characterized by comprising a step in which imaging control data is determined based on the status change data, wherein the imaging control data describes a command to be issued to a medical imaging device for taking an image of at least part of the anatomical body part, wherein the part of the anatomical body part to be imaged corresponds anatomically to a part of the biomechanical model which is adapted for determining the adapted biomechanical model data. a) initial biomechanical model data is acquired (S1) which describes an initial biomechanical model of the anatomical body part; b) workflow step data is acquired (S2) which describes a current step of a workflow of a procedure to be carried out on the patient; c) status change data is determined (S3) based on the workflow step data and the initial biomechanical model data, wherein the status change data describes a change in the patient's status, the change in the patient's status is a change in at least one of a position or the geometry of the patient's body; d) model adaptation data is acquired (S4) which describes an association between the change in the patient's status and an adaptation to be applied to the initial biomechanical model; e) adapted biomechanical model data is determined (S5) based on the initial biomechanical model data and the status change data and the model adaptation data, wherein the adapted biomechanical model data describes an adapted biomechanical model which is determined by applying the adaptation to the initial biomechanical model,
A hot-dip zinc-based plated steel sheet comprising: a base steel sheet that is a metal substrate; a hot-dip zinc-based plating layer provided on the base steel sheet; and a surface treatment layer formed on at least one surface of the hot-dip zinc-based plating layer, wherein the surface treatment layer contains more than or equal to 0.1 g/m 2 and less than or equal to 1.2 g/m 2 of granular oxide per one surface on a metal basis, wherein an oxide of an element which belongs to a semiconductor is considered to be a metal oxide, in which, in a temperature range of 900 to 1300 K, standard free energy of formation (ΔG 0 ) of oxide is smaller than standard free energy of formation (ΔG 0 Zn ) of zinc oxide and larger than standard free energy of formation (ΔG 0 Al ) of aluminum oxide at an identical temperature, the granular oxide has a particle size of more than or equal to 3 nm and less than or equal to 100 nm, which is determined in accordance with a method disclosed in the description, and the granular oxide is selected from the group consisting of oxides of titanium (Ti), oxides of chromium (Cr), oxides of vanadium (V), oxides of manganese (Mn), and oxides of boron (B). a base steel sheet that is a metal substrate; a hot-dip zinc-based plating layer provided on the base steel sheet; and a surface treatment layer formed on at least one surface of the hot-dip zinc-based plating layer, wherein the surface treatment layer contains more than or equal to 0.1 g/m 2 and less than or equal to 1.2 g/m 2 of granular oxide per one surface on a metal basis, wherein an oxide of an element which belongs to a semiconductor is considered to be a metal oxide, in which, in a temperature range of 900 to 1300 K, standard free energy of formation (ΔG 0 ) of oxide is smaller than standard free energy of formation (ΔG 0 Zn ) of zinc oxide and larger than standard free energy of formation (ΔG 0 Al ) of aluminum oxide at an identical temperature, the granular oxide has a particle size of more than or equal to 3 nm and less than or equal to 100 nm, which is determined in accordance with a method disclosed in the description, and the granular oxide is selected from the group consisting of oxides of titanium (Ti), oxides of chromium (Cr), oxides of vanadium (V), oxides of manganese (Mn), and oxides of boron (B).
Pump comprising a pump housing composed of at least two housing parts , wherein the at least two housing parts are interconnected by means of a latching device for the pump housing to produce a releasable latched connection between the two housing parts , wherein the latching device has on a first housing part an elongate projecting latching hook comprising a latching protrusion on the upper side of the latching hook and introduction chamfers on the upper side and on the underside, wherein a latching opening is provided on a second housing part and has a latching tongue defining the latching opening outwardly, the latching protrusion abutting this latching tongue when the latched connection is completed, wherein an introduction web is arranged in the latching opening on the underside opposite the latching tongue and has an introduction chamfer for the latching hook , wherein at least one securing tongue engages from the side into the latching opening , a free end of said securing tongue protruding into the path of the latching hook when said latching hook is inserted into the latching opening .
A method for calibrating an apparatus for manufacturing a three-dimensional object by layer-wise solidification of a building material at the positions corresponding to the cross-section of the object to be manufactured in a respective layer, in which method an irradiation pattern is detected in a spatially resolved manner, wherein the apparatus comprises a build space, in which a build area is provided and in which the object is to be built layer by layer by selectively solidifying the building material , a solidification device for emitting at least one beam of electromagnetic radiation or at least one particle beam to selective positions of the build area , and a detection device with at least one radiation sensor and at least one radiation conductor, characterized by the following steps: generating an irradiation pattern on the build area in a layer of the building material or on a target , wherein the irradiation pattern is a line pattern of substantially parallel lines, coupling the electromagnetic radiation that is emitted from the building material or the target when generating an irradiation pattern into the radiation conductor, conducting the radiation to the radiation sensor, and detecting the radiation by the radiation sensor, and deriving a calibration information on the basis of this detection. wherein the apparatus comprises a build space, in which a build area is provided and in which the object is to be built layer by layer by selectively solidifying the building material , a solidification device for emitting at least one beam of electromagnetic radiation or at least one particle beam to selective positions of the build area , and a detection device with at least one radiation sensor and at least one radiation conductor, characterized by the following steps: generating an irradiation pattern on the build area in a layer of the building material or on a target , wherein the irradiation pattern is a line pattern of substantially parallel lines, coupling the electromagnetic radiation that is emitted from the building material or the target when generating an irradiation pattern into the radiation conductor, conducting the radiation to the radiation sensor, and detecting the radiation by the radiation sensor, and deriving a calibration information on the basis of this detection. generating an irradiation pattern on the build area in a layer of the building material or on a target , wherein the irradiation pattern is a line pattern of substantially parallel lines, coupling the electromagnetic radiation that is emitted from the building material or the target when generating an irradiation pattern into the radiation conductor, conducting the radiation to the radiation sensor, and detecting the radiation by the radiation sensor, and deriving a calibration information on the basis of this detection.
A multi-ply radiation dosage indicator comprising: a first ply having at least two independent visible indicia thereon; a second ply having at least two independent radiation sensitive zones overlying each independent indicia of said first ply; said each radiation sensitive zone having a changing opacity in response to exposure to a radiation dosage exceeding an independently predetermined threshold of each radiation sensitive zone; and a third ply overlying said second ply and having at least two independent viewing zones through which the respective visible indicia of said first ply is exposed to view, said third ply having at least two independent visible indicia thereon positioned adjacent to each viewing zone, the indicia of said first ply and the indicia of said third ply together providing a visual indication as to whether said indicator has been exposed to a radiation dosage exceeding the predetermined threshold. a first ply having at least two independent visible indicia thereon; a second ply having at least two independent radiation sensitive zones overlying each independent indicia of said first ply; said each radiation sensitive zone having a changing opacity in response to exposure to a radiation dosage exceeding an independently predetermined threshold of each radiation sensitive zone; and a third ply overlying said second ply and having at least two independent viewing zones through which the respective visible indicia of said first ply is exposed to view, said third ply having at least two independent visible indicia thereon positioned adjacent to each viewing zone, the indicia of said first ply and the indicia of said third ply together providing a visual indication as to whether said indicator has been exposed to a radiation dosage exceeding the predetermined threshold.