mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for transporting objects , in particular portions, which each comprise at least one slice cut off from a food product, in particular by means of a slicing apparatus, in particular by means of a high-speed slicer, said apparatus comprising a processing device such as a blade or a handling device; at least one transport mover ; a path system for the transport mover in which the transport mover is movable in a transport direction (T) along at least one path ; and a control device for controlling the movements of the transport movers in the path system, wherein the transport mover comprises at least one runner for cooperating with the path system and at least one carrier attached to the runner for at least one object , characterized in that the carrier has at least one opening, in particular a slot , for an engagement of the processing device. at least one transport mover ; a path system for the transport mover in which the transport mover is movable in a transport direction (T) along at least one path ; and a control device for controlling the movements of the transport movers in the path system, wherein the transport mover comprises at least one runner for cooperating with the path system and at least one carrier attached to the runner for at least one object , characterized in that the carrier has at least one opening, in particular a slot , for an engagement of the processing device.
A tube furnace device for an atomizing furnace, in particular for atomic absorption spectrometry, the tube furnace device comprising a sample carrier means and a bearing means for supporting and forming electrical contact with the sample carrier means, the sample carrier means having a receiving tube forming a tubular receiving space for receiving an analyte, the sample carrier means having two bearing protrusions on the receiving tube for forming a connection with the bearing means, the bearing protrusions extending perpendicularly, preferably orthogonally, in relation to a longitudinal axis of the receiving tube, the tube furnace device further comprising a contact pressure means via which a contact pressure force can be exerted on the bearing protrusions in the direction of a passant line in relation to a circular cross section of the receiving tube, the contact pressure means has two contact pressure elements , each contact pressure element being associated with one bearing protrusion, the tube furnace device is made of graphite, wherein the contact pressure elements are arranged on the bearing protrusions in such a manner that the contact pressure force can be exerted perpendicularly, preferably orthogonally, on the bearing protrusions in relation to a longitudinal axis of the bearing protrusions without the contact pressure force or a force component of the contact pressure force being directed at the receiving tube, characterized in that the tube furnace device is made entirely of graphite.
A process for preparing a polyamide dispersion in polyol by reacting diamine and dicarboxylic acid components in a molar ratio of from 1.1:0.9 to 0.9:1.1 in a polyol component in a reactor, the diamine component containing 10 to 100 wt% of at least one polyetheramine which is a difunctional primary amine with a number average molecular weight (M n ) of from 500 to 5,000 g/mol, the polyol component having a number average molecular weight (M n ) of from 2,000 to 8,000 g/mol, wherein at most 80 wt% of the diamine component are provided in the reactor at the start of the reaction and at least 20 wt% of the diamine component are added stepwise or continuously to the reactor in the course of the reaction.
Electrical device for connection to a high-voltage supply system, comprising a tank in which a magnetizable core and at least one winding which surrounds the core at least in sections are arranged, wherein the tank is filled with a first insulating fluid, characterized in that - the electrical device has an apparatus, wherein the at least one winding is connected to a cable connection of the apparatus which has - a housing which is filled with a second insulating fluid which is an mineral oil, a vegetable oil or a synthetic oil, - a high-voltage leadthrough which can be fastened to the housing and which has a high-voltage conductor which extends through a leadthrough insulator , - the cable connection , which is provided on the housing , for connecting a high-voltage cable , and - a connecting conductor which is held in the housing in an insulated manner and is surrounded by the second insulating fluid and connects the cable connection directly to the high-voltage conductor of the high-voltage leadthrough . - the electrical device has an apparatus, wherein the at least one winding is connected to a cable connection of the apparatus which has - a housing which is filled with a second insulating fluid which is an mineral oil, a vegetable oil or a synthetic oil, - a high-voltage leadthrough which can be fastened to the housing and which has a high-voltage conductor which extends through a leadthrough insulator , - the cable connection , which is provided on the housing , for connecting a high-voltage cable , and - a connecting conductor which is held in the housing in an insulated manner and is surrounded by the second insulating fluid and connects the cable connection directly to the high-voltage conductor of the high-voltage leadthrough .
A method of securing integrity of data collected in data storage apparatus for an object over time, comprising receiving, at the data storage apparatus , data relating to the object, wherein at least a part of the data originates from a data processing entity provided in connection with the object , processing, by the data storage apparatus upon receipt of the data, the received data, the processing comprising storing the data in the data storage apparatus and at the same time computing a first digital signature (#1) for the data for later use in verification of the integrity of the data, sending, by the data storage apparatus, the first digital signature (#1) to a distributed ledger for later use in verification of the integrity of the data stored in the data storage apparatus to store the first digital signature separately from the data in the distributed ledger, sending the data from the data storage apparatus to at least one user device for presentation by the at least one user device , computing a second digital signature (#2) for the data by the data storage apparatus at the time of sending the data from the data storage apparatus to the at least one user device , and sending the second digital signature (#2) from the data storage apparatus to the at least one user device for use by the at least one user device in verification of the integrity of the data based on the first digital signature (#1) stored separately in the distributed ledger .
A detector array , comprising: at least one detector pixel with a cavity that defines a three dimensional volume, wherein a surface of the cavity includes at least two photosensitive regions and a non-photosensitive region there between, defining at least two sub-pixels which detect light photons traversing within the three dimensional cavity and produce respective signals indicative thereof; and a scintillator , including: a first sub-portion that is located in the cavity and which emits the light photons in response to absorbing x-ray photons, wherein light photons emitted by the first sub-portion are detected by both of the at least two sub-pixels; and the detector array being characterized in that the scintillator is further including a second sub-portion that is located outside the cavity. at least one detector pixel with a cavity that defines a three dimensional volume, wherein a surface of the cavity includes at least two photosensitive regions and a non-photosensitive region there between, defining at least two sub-pixels which detect light photons traversing within the three dimensional cavity and produce respective signals indicative thereof; and a scintillator , including: a first sub-portion that is located in the cavity and which emits the light photons in response to absorbing x-ray photons, wherein light photons emitted by the first sub-portion are detected by both of the at least two sub-pixels; and the detector array being characterized in that the scintillator is further including a second sub-portion that is located outside the cavity. a first sub-portion that is located in the cavity and which emits the light photons in response to absorbing x-ray photons, wherein light photons emitted by the first sub-portion are detected by both of the at least two sub-pixels; and the detector array being characterized in that the scintillator is further including a second sub-portion that is located outside the cavity.
A cardiac stimulation system adapted to provide cardiac resynchronization therapy (CRT) for a patient heart , the stimulation system comprising: a pulse generator ; a stimulating electrode coupled to the pulse generator and configured to be disposed in proximity to a His bundle of the patient heart ; an implantable sensing electrode coupled to the pulse generator and adapted to sense electrical activity of a left ventricle (LV) of the patient heart ; a processor communicatively coupled to the pulse generator ; and a memory communicatively coupled to the processor , the memory including instructions executable by the processor that, when executed by the processor , cause the processor to apply, using the pulse generator and through the stimulating electrode , a His bundle pacing (HBP) impulse having a first impulse energy, characterized in the instructions further cause the processor to: measure, using the implantable sensing electrode , an LV activation time in response to the HBP impulse; and automatically modify, based on the LV activation time, at least one setting of the pulse generator stored in the at least one memory such that a subsequent HBP impulse to be provided by the pulse generator via the stimulating electrode has a second impulse energy different from the first impulse energy. a pulse generator ; a stimulating electrode coupled to the pulse generator and configured to be disposed in proximity to a His bundle of the patient heart ; an implantable sensing electrode coupled to the pulse generator and adapted to sense electrical activity of a left ventricle (LV) of the patient heart ; a processor communicatively coupled to the pulse generator ; and a memory communicatively coupled to the processor , the memory including instructions executable by the processor that, when executed by the processor , cause the processor to apply, using the pulse generator and through the stimulating electrode , a His bundle pacing (HBP) impulse having a first impulse energy, characterized in the instructions further cause the processor to: measure, using the implantable sensing electrode , an LV activation time in response to the HBP impulse; and automatically modify, based on the LV activation time, at least one setting of the pulse generator stored in the at least one memory such that a subsequent HBP impulse to be provided by the pulse generator via the stimulating electrode has a second impulse energy different from the first impulse energy. measure, using the implantable sensing electrode , an LV activation time in response to the HBP impulse; and automatically modify, based on the LV activation time, at least one setting of the pulse generator stored in the at least one memory such that a subsequent HBP impulse to be provided by the pulse generator via the stimulating electrode has a second impulse energy different from the first impulse energy.
A network access method performed by a terminal, the method comprising: searching (S201) for, when it is detected that the terminal performs network search, frequency points stored in a historical registration list, the historical registration list comprising registered frequency points; characterized by in case of failure in searching for the frequency points stored in the historical registration list, scanning (S202) frequency points of supported bands to perform network search; adding (S203) the scanned frequency points to a first pre-set list; and in case that the terminal fails in registration under one Public Land Mobile Network, PLMN, searching (S204) for the frequency points stored in the first pre-set list in another PLMN registration process and performing network registration under the another PLMN. searching (S201) for, when it is detected that the terminal performs network search, frequency points stored in a historical registration list, the historical registration list comprising registered frequency points; characterized by in case of failure in searching for the frequency points stored in the historical registration list, scanning (S202) frequency points of supported bands to perform network search; adding (S203) the scanned frequency points to a first pre-set list; and in case that the terminal fails in registration under one Public Land Mobile Network, PLMN, searching (S204) for the frequency points stored in the first pre-set list in another PLMN registration process and performing network registration under the another PLMN.
A compound represented by the Formula 1 below: wherein, in the Formula 1, A is a core comprising a polyalkylene oxide unit, B is a chain connected to said core, where the chain comprises a polyalkylene oxide unit and is a chain in which a polymerizable functional group is terminally linked, n is a number of 0 or more, m is a number of 1 or more, n+m is a number of 3 or more, and K is -L-R, where said L is a linker and R is a polymerizable functional group, where said polymerizable functional group is an acryloyl group, an acryloyloxy group, a methacryloyl group or a methacryloyloxy group, wherein B in Formula 1 is represented by Formula 2 below: wherein, in Formula 2, A 1 is an alkylene group, Q 1 is an alicyclic or aromatic divalent residue, L 1 to L 3 are linkers, R is a polymerizable functional group or a residue of Formul 3 below, and n is any number, wherein, in Formula 3, Q 2 is an alicyclic or aromatic divalent residue, L 4 is a linker, A is the same as A in Formula 1, K is the same as K in Formula 1, and p is a number of 2 or more, and wherein L 1 to L 4 in Formulas 2 and 3 are each independently an oxygen atom, a sulfur atom, an alkylene group, an alkenylene group or an alkynylene group, or a linker represented by Formula D or E below: wherein, in Formulas D and E, each of X is independently a single bond, an alkylene group, an oxyalkylene group or an alkyleneoxy group and each of R 1 and R 2 is independently a hydrogen atom or an alkyl group. wherein, in the Formula 1, A is a core comprising a polyalkylene oxide unit, B is a chain connected to said core, where the chain comprises a polyalkylene oxide unit and is a chain in which a polymerizable functional group is terminally linked, n is a number of 0 or more, m is a number of 1 or more, n+m is a number of 3 or more, and K is -L-R, where said L is a linker and R is a polymerizable functional group, where said polymerizable functional group is an acryloyl group, an acryloyloxy group, a methacryloyl group or a methacryloyloxy group, wherein B in Formula 1 is represented by Formula 2 below: wherein, in Formula 2, A 1 is an alkylene group, Q 1 is an alicyclic or aromatic divalent residue, L 1 to L 3 are linkers, R is a polymerizable functional group or a residue of Formul 3 below, and n is any number, wherein, in Formula 3, Q 2 is an alicyclic or aromatic divalent residue, L 4 is a linker, A is the same as A in Formula 1, K is the same as K in Formula 1, and p is a number of 2 or more, and wherein L 1 to L 4 in Formulas 2 and 3 are each independently an oxygen atom, a sulfur atom, an alkylene group, an alkenylene group or an alkynylene group, or a linker represented by Formula D or E below: wherein, in Formulas D and E, each of X is independently a single bond, an alkylene group, an oxyalkylene group or an alkyleneoxy group and each of R 1 and R 2 is independently a hydrogen atom or an alkyl group.
A system for monitoring the vibration of each of a plurality of machines in at least one facility , comprising: at least one reflective patch affixed to each of the plurality of machines ; and a vibration detection unit positioned in the facility and comprising an optics module , wherein the optics module is adapted to transmit an interrogator electromagnetic beam to the reflective patch and the reflective patch reflects a vibration modulated beam to the vibration detection unit , wherein the optics module of the vibration detection unit is adapted to demodulate the interrogator beam to determine the vibration of the plurality of machines , characterized in that the system further comprises: a control module adapted to orient the optics module to transmit the interrogator beam to each of the plurality of machines , so that the interrogator beam is directed at the at least one reflective patch affixed to each of the plurality of machines , wherein the optics module comprises one or more rotational and translational degrees of freedom. at least one reflective patch affixed to each of the plurality of machines ; and a vibration detection unit positioned in the facility and comprising an optics module , wherein the optics module is adapted to transmit an interrogator electromagnetic beam to the reflective patch and the reflective patch reflects a vibration modulated beam to the vibration detection unit , wherein the optics module of the vibration detection unit is adapted to demodulate the interrogator beam to determine the vibration of the plurality of machines , characterized in that the system further comprises: a control module adapted to orient the optics module to transmit the interrogator beam to each of the plurality of machines , so that the interrogator beam is directed at the at least one reflective patch affixed to each of the plurality of machines , wherein the optics module comprises one or more rotational and translational degrees of freedom. a control module adapted to orient the optics module to transmit the interrogator beam to each of the plurality of machines , so that the interrogator beam is directed at the at least one reflective patch affixed to each of the plurality of machines , wherein the optics module comprises one or more rotational and translational degrees of freedom.
A pharmaceutical product comprising a) as a first component an inhibitor of the MDM2-p53 interaction; and b) as a second component cytarabine; as a combined preparation for the sequential or simultaneous use in the treatment of Acute Myeloid Leukemia (AML), wherein the MDM2-inhibitor in a) is a compound of formula (I) wherein n is from 3 to 70 or a compound of formula (A)
A rotary vacuum valve for distributing vacuum pressure to one or more air-tight enclosures of a rotary vacuumization system, wherein the rotary valve comprises: a stationary portion defining an entry port in fluid communication with a vacuum system; and a rotating portion defining a plurality of chamber ports each in fluid communication with a corresponding vacuum chamber via a vacuum conduit, wherein each vacuum chamber is configured to form an air-tight enclosure; wherein the rotating portion is configured to rotate relative to the stationary portion and thereby selectably align each of the plurality of chamber ports with the entry port of the stationary portion to place the corresponding vacuum chamber in fluid communication with the vacuum system, characterized in that the stationary portion is provided with a diagnostic port in fluid communication with a diagnostic system, and the rotating portion is further configured to rotate relative to the stationary portion to selectably align each of the plurality of chamber ports with the diagnostic port to place the corresponding vacuum chamber in fluid communication with the diagnostic system. a stationary portion defining an entry port in fluid communication with a vacuum system; and a rotating portion defining a plurality of chamber ports each in fluid communication with a corresponding vacuum chamber via a vacuum conduit, wherein each vacuum chamber is configured to form an air-tight enclosure; wherein the rotating portion is configured to rotate relative to the stationary portion and thereby selectably align each of the plurality of chamber ports with the entry port of the stationary portion to place the corresponding vacuum chamber in fluid communication with the vacuum system, characterized in that the stationary portion is provided with a diagnostic port in fluid communication with a diagnostic system, and the rotating portion is further configured to rotate relative to the stationary portion to selectably align each of the plurality of chamber ports with the diagnostic port to place the corresponding vacuum chamber in fluid communication with the diagnostic system.
Method for preparing a monolysinate compound, comprising: - providing an aqueous lysine solution; - producing a liquid reaction mixture by dissolving a metal salt in the aqueous lysine solution, wherein the liquid reaction mixture is produced by dissolving a metal salt in the aqueous lysine solution in a molar ratio of 1 mol of a metal atom of the metal salt to 1 mol of the lysine, wherein the aqueous lysine solution and the liquid reaction mixture are substantially free of chlorides and Cl - ions, and in particular are substantially free of lysine-HCl salts; - providing the liquid reaction mixture in which lysine and the metal salt are dissolved; - reacting the lysine dissolved in the reaction mixture and the metal salt to form the monolysinate compound; - drying the liquid reaction mixture to obtain the monolysinate compound, wherein the metal salt is a metal sulfate, a metal hydroxide, or a metal carbonate, wherein the metal of the metal salt is a divalent metal, in particular Mn 2+ , Fe 2+ , Zn 2+ , Ca 2+ , Mg 2+ , Co 2+ , Na 2+ , or Ni 2+ , and wherein the monolysinate compound is a compound according to any one of the following structural formulas a), b), c), or d), where M represents a metal cation of the metal salt and A represents the anion of the metal salt: a) b) c) d) - providing an aqueous lysine solution; - producing a liquid reaction mixture by dissolving a metal salt in the aqueous lysine solution, wherein the liquid reaction mixture is produced by dissolving a metal salt in the aqueous lysine solution in a molar ratio of 1 mol of a metal atom of the metal salt to 1 mol of the lysine, wherein the aqueous lysine solution and the liquid reaction mixture are substantially free of chlorides and Cl - ions, and in particular are substantially free of lysine-HCl salts; - providing the liquid reaction mixture in which lysine and the metal salt are dissolved; - reacting the lysine dissolved in the reaction mixture and the metal salt to form the monolysinate compound; - drying the liquid reaction mixture to obtain the monolysinate compound, a) b) c) d)