mhurhangee/patent-ind-claim-en huggingface dataset:
A polymer compound for use as a polymerization agent in coatings, paints, or inks, the polymer compound comprising a metal-bearing urethanized polymer having the following formula: wherein M is a metal; R 1 is a first alkyl group; and R 2 is a second alkyl group, wherein the metal is cobalt or manganese, wherein the metal-bearing urethanized polymer has a metal content between 6 % and 8% by weight, and a water solubility according to OECD 105 below 20 mg/l and wherein the urethanized polymer is soluble in a low-volatile organic compound (low-VOC) solvent. M is a metal; R 1 is a first alkyl group; and R 2 is a second alkyl group,
A pressure sensor , comprising: a sensor body which has a first surface and a cavity with an opening in the first surface ; a cantilever which has a base end portion supported on the first surface and a distal end portion provided to form a gap from a peripheral edge of the opening inside the opening , the cantilever being flexurally deformed according to a pressure difference between an inside and an outside of the cavity , the cantilever being formed of a semiconductor material; and a displacement measurement unit configured to measure a displacement of the cantilever vibrating according to the pressure difference, characterized in that the pressure sensor is configured to detect pressure fluctuations at a lower limit frequency f LOW defined by f LOW = k ⋅ G 2 / V , wherein a proportional constant is represented by k and k is in a range of 0.005 to 0.02 ×10 6 m/s, a width of the gap is represented by G, and a volume of the cavity is represented by V, the displacement measurement unit includes a reference cantilever and a detection circuit , the detection circuit detects a difference between an output of the cantilever and an output of the reference cantilever , and wherein the reference cantilever has the same configuration as the cantilever , and is integrally cantilevered by the sensor body and fixed so as to be opened to gas outside of the cavity but not flexurally deformed by the pressure fluctuation in the outside gas pressure (P out ). a sensor body which has a first surface and a cavity with an opening in the first surface ; a cantilever which has a base end portion supported on the first surface and a distal end portion provided to form a gap from a peripheral edge of the opening inside the opening , the cantilever being flexurally deformed according to a pressure difference between an inside and an outside of the cavity , the cantilever being formed of a semiconductor material; and a displacement measurement unit configured to measure a displacement of the cantilever vibrating according to the pressure difference, characterized in that the pressure sensor is configured to detect pressure fluctuations at a lower limit frequency f LOW defined by f LOW = k ⋅ G 2 / V , wherein a proportional constant is represented by k and k is in a range of 0.005 to 0.02 ×10 6 m/s, a width of the gap is represented by G, and a volume of the cavity is represented by V, the displacement measurement unit includes a reference cantilever and a detection circuit , the detection circuit detects a difference between an output of the cantilever and an output of the reference cantilever , and wherein the reference cantilever has the same configuration as the cantilever , and is integrally cantilevered by the sensor body and fixed so as to be opened to gas outside of the cavity but not flexurally deformed by the pressure fluctuation in the outside gas pressure (P out ).
Lock for a wing, in particular a sliding wing, with a lock case , which is closed on one side by a face plate (3.1), and with a locking arrangement which is arranged in the lock case and has at least one lock bolt , wherein the at least one lock bolt is moveable through an opening in the face plate (3.1) between a retracted open position and a locking position which is extended out of the lock case and in which the at least one lock bolt engages in a corresponding recess of a striker plate , wherein an actuating device , upon corresponding actuation, transfers at least one lock bolt out of the retracted open position into the extended locking position or from the extended locking position into the retracted open position, wherein the actuating device comprises a pushing element which is coupled to the at least one lock bolt and is mounted displaceably between a starting position and an end position, and a latching mechanism , which, in a first position, releases the pushing element for a pushing movement (Up1) in the direction of the end position and, in a second position, blocks the pushing movement in a predetermined latching position, wherein the latching mechanism , in the second position, releases the pushing element for a pushing movement (Up2) in the direction of the end position and blocks said pushing element for an opposed pushing movement (Down1) in the direction of the starting position, wherein the latching mechanism , in a third position, releases the pushing element for an opposed pushing movement (Down2) in the direction of the starting position, characterized in that the latching mechanism comprises a blocking element and a spring element which acts on the blocking element and, in the second position, forces the blocking element against a latching lug arranged on the pushing element , and therefore the pushing element is secured in the latching position, wherein, during a first opposed pushing movement (Down1) of the pushing element in the direction of the starting position following a first pushing movement (Up1) in the direction of the end position, the latching lug transfers the latching mechanism from the first position into the second position, wherein, during a second pushing movement (Up2) of the pushing element following the first opposed pushing movement (Down1), the latching lug transfers the latching mechanism from the second position into the third position, and wherein, during a second opposed pushing movement (Down2) of the pushing element in the direction of the starting position following a second pushing movement (Up2) in the direction of the end position, the latching lug transfers the latching mechanism from the third position into the first position.
Procedure designed to modify at least an interim natural frequency which is inherent to a tube arrangement consisting of at least one tube , - wherein the tube serves as a measuring tube of a vibronic-type transducer - and wherein the tube comprises a metal tube wall, particularly at least partially circular cylindrical, as well as a reinforcement body , particularly made of metal and/or a material that can be connected via a substance-to-substance connection to the material of the tube and/or lamellar, which is applied on the tube wall, particularly on an exterior lateral surface of the tube wall and co-determines said interim natural frequency of the tube arrangement, - wherein the reinforcement body is applied on the lateral surface of the tube by means of welding and/or soldering, particularly hard-soldering - and/or wherein the reinforcement body is formed by a solder material applied on the lateral surface, particularly in the form of ridges or points, wherein said procedure comprises a step consisting of the removal of partial volumes of the reinforcement body , wherein the step involving the removal of partial volumes of the reinforcement body is carried out and/or repeated until the interim natural frequency is adjusted to a target natural frequency specified for the tube arrangement, which is lower than the interim natural frequency. - wherein the tube serves as a measuring tube of a vibronic-type transducer - and wherein the tube comprises a metal tube wall, particularly at least partially circular cylindrical, as well as a reinforcement body , particularly made of metal and/or a material that can be connected via a substance-to-substance connection to the material of the tube and/or lamellar, which is applied on the tube wall, particularly on an exterior lateral surface of the tube wall and co-determines said interim natural frequency of the tube arrangement, - wherein the reinforcement body is applied on the lateral surface of the tube by means of welding and/or soldering, particularly hard-soldering - and/or wherein the reinforcement body is formed by a solder material applied on the lateral surface, particularly in the form of ridges or points, wherein said procedure comprises a step consisting of the removal of partial volumes of the reinforcement body , wherein the step involving the removal of partial volumes of the reinforcement body is carried out and/or repeated until the interim natural frequency is adjusted to a target natural frequency specified for the tube arrangement, which is lower than the interim natural frequency.
A method implemented by a platoon management entity managing a platoon of vehicles , the platoon comprising members communicating using communication systems configured to use a first vehicle-to-everything radio access technology, V2X RAT , said members being the vehicles of the platoon, the method comprising: determining (600, 605; 700) that an interworking function for providing simultaneous access to a plurality of V2X RATs including the first V2X RAT is available from an interworking vehicle comprising an interworking communication system capable of supporting the interworking function; including the interworking vehicle in the platoon; determining availability of a further vehicle comprising a further communication system to join the platoon, the further communication system being configured to communicate using a second V2X RAT of the plurality of V2X RATs ; transmitting, via the interworking communication system utilizing both the first V2X RAT and the second V2X RAT of the plurality of V2X RATs, a request (540; 635, 640) to the further vehicle to join the platoon; receiving, via the interworking communication system, an acknowledgement (545, 550, 555; 645, 650) from the further vehicle; including the further vehicle in the platoon; detecting a cessation of the interworking function, wherein detecting the cessation of the interworking function comprises receiving, from the interworking vehicle, a notification including a projected time where the interworking vehicle ceases providing the interworking function; transmitting, via the interworking communication system, a message to the further vehicle removing the further vehicle from the platoon; and removing the interworking vehicle from the platoon. determining (600, 605; 700) that an interworking function for providing simultaneous access to a plurality of V2X RATs including the first V2X RAT is available from an interworking vehicle comprising an interworking communication system capable of supporting the interworking function; including the interworking vehicle in the platoon; determining availability of a further vehicle comprising a further communication system to join the platoon, the further communication system being configured to communicate using a second V2X RAT of the plurality of V2X RATs ; transmitting, via the interworking communication system utilizing both the first V2X RAT and the second V2X RAT of the plurality of V2X RATs, a request (540; 635, 640) to the further vehicle to join the platoon; receiving, via the interworking communication system, an acknowledgement (545, 550, 555; 645, 650) from the further vehicle; including the further vehicle in the platoon; detecting a cessation of the interworking function, wherein detecting the cessation of the interworking function comprises receiving, from the interworking vehicle, a notification including a projected time where the interworking vehicle ceases providing the interworking function; transmitting, via the interworking communication system, a message to the further vehicle removing the further vehicle from the platoon; and removing the interworking vehicle from the platoon.
A medical imaging apparatus comprising: a display ; a data obtainer configured to obtain raw data generated by performing a tomography scan on an object; and a processor configured to: obtain, from the raw data, a plurality of pieces of monochromatic image data respectively corresponding to a plurality of energy levels, receive an external input that selects at least one energy level among the plurality of energy levels and sets at least one weight corresponding to the selected at least one energy level, and generate a synthetic image of the object by applying a combination of weights for the plurality of energy levels including the set at least one weight corresponding to the selected at least one energy level to at least one pixel value of the plurality of pieces of monochromatic image data; characterized in that , the display is configured to display the combination of weights for the plurality of energy levels by using a graph and the generated synthetic image, and the processor is further configured to change the combination of weights for the plurality of energy levels in response to an external input that changes a shape of the graph. a display ; a data obtainer configured to obtain raw data generated by performing a tomography scan on an object; and a processor configured to: obtain, from the raw data, a plurality of pieces of monochromatic image data respectively corresponding to a plurality of energy levels, receive an external input that selects at least one energy level among the plurality of energy levels and sets at least one weight corresponding to the selected at least one energy level, and generate a synthetic image of the object by applying a combination of weights for the plurality of energy levels including the set at least one weight corresponding to the selected at least one energy level to at least one pixel value of the plurality of pieces of monochromatic image data; obtain, from the raw data, a plurality of pieces of monochromatic image data respectively corresponding to a plurality of energy levels, receive an external input that selects at least one energy level among the plurality of energy levels and sets at least one weight corresponding to the selected at least one energy level, and generate a synthetic image of the object by applying a combination of weights for the plurality of energy levels including the set at least one weight corresponding to the selected at least one energy level to at least one pixel value of the plurality of pieces of monochromatic image data; characterized in that , the display is configured to display the combination of weights for the plurality of energy levels by using a graph and the generated synthetic image, and the processor is further configured to change the combination of weights for the plurality of energy levels in response to an external input that changes a shape of the graph.
A process for preparing a pharmaceutically-acceptable formulation of a radioactive chelate composition comprising the steps of: a) irradiating Sm-152 for no more than 48 hours in a nuclear reactor to form Sm-153 wherein the isotope composition after the irradiation contains mainly Sm-152 and Sm-153 with trace impurity of Eu-154, wherein the flux of the nuclear reactor is not more than 8.00 x 10 13 neutrons/cm 2 /s such that the specific activity level of Sm-153 produced is such that following radioactive decay of the Sm-153 over a period of five days from the end of irradiation, the activity of Eu-154 in the composition is less than 0.093 μCi per mCi of Sm-153; and b) reacting the Sm-153 isotope mixture in a pharmaceutically-acceptable carrier with DOTMP or a physiologically-acceptable salt thereof as a chelant to form a chelate composition, and thereby preparing a pharmaceutically-administrable dose of the radioactive chelate composition; wherein the dose provides an activity of at least 35 mCi. a) irradiating Sm-152 for no more than 48 hours in a nuclear reactor to form Sm-153 wherein the isotope composition after the irradiation contains mainly Sm-152 and Sm-153 with trace impurity of Eu-154, wherein the flux of the nuclear reactor is not more than 8.00 x 10 13 neutrons/cm 2 /s such that the specific activity level of Sm-153 produced is such that following radioactive decay of the Sm-153 over a period of five days from the end of irradiation, the activity of Eu-154 in the composition is less than 0.093 μCi per mCi of Sm-153; and b) reacting the Sm-153 isotope mixture in a pharmaceutically-acceptable carrier with DOTMP or a physiologically-acceptable salt thereof as a chelant to form a chelate composition, and thereby preparing a pharmaceutically-administrable dose of the radioactive chelate composition; wherein the dose provides an activity of at least 35 mCi.
A method for detecting malicious files comprising: selecting , by a hardware processor, a set of attributes of a file under analysis; calculating , by the hardware processor, a hash of the file based on the selected set of attributes; selecting , by the hardware processor, a classifier for the file from a set of classifiers based on the calculated hash of the file; assigning , by the hardware processor, the file under analysis to one or more categories based on the selected classifier; determining, by the hardware processor, whether the file has been assigned to a category of malicious files; and concluding , by the hardware processor, that the file is malicious based on the determination of whether the file has been assigned to the category of malicious files, wherein selecting the classifier comprises: (i) generating a set of candidate classifiers corresponding to the hash; (ii) verifying a quality of operation of the set of candidate classifiers to generate corresponding coefficient of false positives; and (iii) selecting a classifier with a coefficient of false positives that matches a predetermined criteria as the classifier to use for categorization. selecting , by a hardware processor, a set of attributes of a file under analysis; calculating , by the hardware processor, a hash of the file based on the selected set of attributes; selecting , by the hardware processor, a classifier for the file from a set of classifiers based on the calculated hash of the file; assigning , by the hardware processor, the file under analysis to one or more categories based on the selected classifier; determining, by the hardware processor, whether the file has been assigned to a category of malicious files; and concluding , by the hardware processor, that the file is malicious based on the determination of whether the file has been assigned to the category of malicious files, wherein selecting the classifier comprises: (i) generating a set of candidate classifiers corresponding to the hash; (ii) verifying a quality of operation of the set of candidate classifiers to generate corresponding coefficient of false positives; and (iii) selecting a classifier with a coefficient of false positives that matches a predetermined criteria as the classifier to use for categorization. (i) generating a set of candidate classifiers corresponding to the hash; (ii) verifying a quality of operation of the set of candidate classifiers to generate corresponding coefficient of false positives; and (iii) selecting a classifier with a coefficient of false positives that matches a predetermined criteria as the classifier to use for categorization.
A leadless stimulation device (LSD), comprising: a housing having a distal end , an opposing proximal end and a side wall extending between the distal end and the proximal end ; the distal end and at least part of the side wall of the housing are conductive and electrically connected together, wherein the distal end of the housing includes a cathode tip electrode for the LSD, wherein the cathode tip electrode is exposed to the environment outside of the housing ; an anode electrode , spaced from the cathode tip electrode , exposed to the environment outside of the housing ; a battery situated inside the housing , the battery having a negative terminal and a positive terminal, with the negative terminal operatively coupled to the at least part of the housing that is conductive including the cathode tip electrode ; and stimulation circuitry situated inside the housing and operatively coupled to the cathode tip electrode and the anode electrode , the stimulation circuitry configured to provide a stimulation pulse by applying a voltage difference between the cathode tip electrode and the anode electrode , with a more negative voltage applied to the cathode tip electrode than to the anode electrode , wherein the negative terminal of the battery is electrically connected to an inside surface of the at least part of the side wall of the housing that is conductive and electrically connected to the distal end of the housing , and thus to the cathode tip electrode . a housing having a distal end , an opposing proximal end and a side wall extending between the distal end and the proximal end ; the distal end and at least part of the side wall of the housing are conductive and electrically connected together, wherein the distal end of the housing includes a cathode tip electrode for the LSD, wherein the cathode tip electrode is exposed to the environment outside of the housing ; an anode electrode , spaced from the cathode tip electrode , exposed to the environment outside of the housing ; a battery situated inside the housing , the battery having a negative terminal and a positive terminal, with the negative terminal operatively coupled to the at least part of the housing that is conductive including the cathode tip electrode ; and stimulation circuitry situated inside the housing and operatively coupled to the cathode tip electrode and the anode electrode , the stimulation circuitry configured to provide a stimulation pulse by applying a voltage difference between the cathode tip electrode and the anode electrode , with a more negative voltage applied to the cathode tip electrode than to the anode electrode , wherein the negative terminal of the battery is electrically connected to an inside surface of the at least part of the side wall of the housing that is conductive and electrically connected to the distal end of the housing , and thus to the cathode tip electrode .
A device for ground compaction , comprising a) a frame and a drive motor supported by the frame , b) a vibration exciter driven by the drive motor , and c) a ground compaction apparatus, in particular a base plate or a roller drum , which is connected to the vibration exciter , wherein the vibration exciter causes the ground compaction apparatus to vibrate at a fixed vibration frequency or within a vibration frequency range during a compaction operation, and wherein a conversion device for the conversion of vibrations into electric energy is provided characterized in which converts vibrations of the device for ground compaction into electric energy, characterized in that the conversion device comprises at least two spring-mass systems with different resonance frequencies, and in that a control unit is provided which ascertains the degree of compaction of the ground from the electric energy obtained by the individual spring-mass systems , in particular the respective voltages. a) a frame and a drive motor supported by the frame , b) a vibration exciter driven by the drive motor , and c) a ground compaction apparatus, in particular a base plate or a roller drum , which is connected to the vibration exciter ,