mhurhangee/ep-ind-claims huggingface dataset:
Accommodative intraocular lens for insertion into the capsular bag of an eye, having a first lens part, which comprises a light-transparent lens component comprising a distal surface of the lens component and a proximal surface of the lens component, a light-transparent first membrane arranged adjacent to the distal surface of the lens component and delimiting a cavity together with the lens component, and an optical axis, and a second lens part which can be detachably coupled to the first lens part, whereby the intraocular lens is able to be brought into a coupled state in which the second lens part is arranged on a distal side of the first lens part and configured to deform the first membrane by way of a longitudinal displacement of the second lens part parallel to the optical axis, with the second lens part comprising a first component, which forms a distal end of the second lens part and has an axial through hole in the first component, and a second component, which is configured to deform the first membrane and has an axial through hole in the second component, with the optical axis extending through the axial through hole in the first component and through the axial through hole in the second component, with the first component and the second component being securely connected to one another at their ends which, in the coupled state, are arranged on the outside in a radial direction with respect to the optical axis, characterized in that the first component and the second component are configured to be displaced toward one another in the case of increased stretching of the capsular bag and produce a restoring force as a result.
Housing for a domestic appliance, which at least in regions along its longitudinal extent is divided into at least two shells (2, 3) accommodating functional devices of the domestic appliance, wherein a panel arrangement is mounted externally on at least one shell, at least in regions, characterised in that a first panel extends over significant portions of a first shell, wherein the first panel and a second panel are provided with recesses for accommodating at least a third panel and the recesses in the first and second panel (4, 7) are embodied such that they are open at the side.
A cell thawing method comprising a step of thawing a cell suspension consisting of a freezing medium and of cells, followed by a step of removing said freezing medium by filtration, said step of removing the freezing medium being carried out without prior or simultaneous provision of medium, said method comprising the following steps: (i) placing a container, containing a frozen cell suspension in a device equipped with a filter, at a temperature which allows the cell suspension to thaw; (ii) applying to the cell suspension a force which drives the passing of the freezing medium through the filter; (iii) resuspending the cells in a solution. (i) placing a container, containing a frozen cell suspension in a device equipped with a filter, at a temperature which allows the cell suspension to thaw; (ii) applying to the cell suspension a force which drives the passing of the freezing medium through the filter; (iii) resuspending the cells in a solution.
Plasma treatment device, comprising an electrode arrangement for generating a plasma, in particular a cold atmospheric-pressure plasma, wherein at least one rod electrode is disposed on a carrier element as to be rotatable about a rotation axis, wherein the rod electrode extends in an offset manner in relation to the rotation axis, in a direction parallel to the rotation axis, or at an acute angle in relation to the rotation axis, and a counter-electrode is disposed adjacent to a tip of the at least one rod electrode, characterized in, that the counter-electrode is a plate having a plurality of openings, wherein the plurality of openings are disposed in a distributed manner on at least one orbit, which is matched, respectively, to the orbit of the tip of the at least one rod electrode.
A process for preparing compounds of Formula I: where Y is selected from 3,4-dimethoxyphenyl, 3,4-dihydroxyphenyl or a 3,4-dihalophenyl, comprising the steps of: a) mixing an alkoxy ketone (iii) where Y is selected from 3,4-dimethoxyphenyl, 3,4-dihydroxyphenyl or a 3,4-dihalophenyl, with a co-factor, a transaminase polypeptide and an amine to produce a cyclohexyl amine (iv) b) mixing the cyclohexyl amine (iv) with a malic acid derivative (v) where R2 is selected from hydrogen, esters, carbonates, carbamates, silyl ethers, phosphates or sulfates and where X and Z are independently selected from OH, C1-C6 alkoxy, esters, halides or O-acyl, said X and Z may optionally be joined to form a ring (v-a) to obtain a hydroxy succinimide (vi) and c) reducing the hydroxy succinimide (vi) to obtain a compound of Formula I. a) mixing an alkoxy ketone (iii) where Y is selected from 3,4-dimethoxyphenyl, 3,4-dihydroxyphenyl or a 3,4-dihalophenyl, with a co-factor, a transaminase polypeptide and an amine to produce a cyclohexyl amine (iv) b) mixing the cyclohexyl amine (iv) with a malic acid derivative (v) where R2 is selected from hydrogen, esters, carbonates, carbamates, silyl ethers, phosphates or sulfates and where X and Z are independently selected from OH, C1-C6 alkoxy, esters, halides or O-acyl, said X and Z may optionally be joined to form a ring (v-a) to obtain a hydroxy succinimide (vi) and c) reducing the hydroxy succinimide (vi) to obtain a compound of Formula I.
A kit for detecting a target nucleic acid sequence, the kit comprising: i) an endonuclease enzyme; ii) a long probe consisting of a single-stranded oligonucleotide consisting of: - a 3' reporter sequence, - an endonuclease recognition site, and - a 5' ΔcT sequence complementary to a portion of the target nucleic acid sequence to be detected; and iii) a short probe consisting of a single-stranded oligonucleotide consisting of: - a 5' ΔcR sequence complementary to a portion of the reporter sequence, and - a 3' cNE sequence complementary to the endonuclease recognition site, wherein both the 5' ΔcT sequence and the 5' ΔcR sequence are sufficiently short so that hybridization of the short probe to the long probe does not occur in the absence of the target nucleic acid sequence, and wherein the kit does non comprise a polymerase enzyme. i) an endonuclease enzyme; ii) a long probe consisting of a single-stranded oligonucleotide consisting of: - a 3' reporter sequence, - an endonuclease recognition site, and - a 5' ΔcT sequence complementary to a portion of the target nucleic acid sequence to be detected; and - a 3' reporter sequence, - an endonuclease recognition site, and - a 5' ΔcT sequence complementary to a portion of the target nucleic acid sequence to be detected; and iii) a short probe consisting of a single-stranded oligonucleotide consisting of: - a 5' ΔcR sequence complementary to a portion of the reporter sequence, and - a 3' cNE sequence complementary to the endonuclease recognition site, - a 5' ΔcR sequence complementary to a portion of the reporter sequence, and - a 3' cNE sequence complementary to the endonuclease recognition site,
A vehicle headlamp mounting assembly, comprising: an upper mounting bracket, a middle mounting bracket, a lower mounting bracket, a fender bracket, a connecting plate, and a reinforcing bracket, wherein the lower mounting bracket is connected to a front longitudinal beam of a vehicle; the fender bracket is connected to a fender of the vehicle; a top end of the middle mounting bracket is connected to the upper mounting bracket, and a bottom end of the middle mounting bracket is connected to the lower mounting bracket; a rear end of the upper mounting bracket is connected to a top end of the reinforcing bracket via the fender bracket and the connecting plate in sequence; a bottom end of the reinforcing bracket is connected to the lower mounting bracket via at least one blind rivet; the fender bracket, the connecting plate and the reinforcing bracket are all arranged on an outer side relative to the middle mounting bracket; a first mounting structure is provided near an inner end of the upper mounting bracket; the fender bracket is provided with a second mounting structure; a third mounting structure is provided near the bottom end of the middle mounting bracket; a fourth mounting structure is provided near the bottom end of the reinforcing bracket; and when assembled, an upper part of a headlamp is fixed via the first mounting structure and the second mounting structure, and a lower part of the headlamp is fixed via the third mounting structure and the fourth mounting structure. the lower mounting bracket is connected to a front longitudinal beam of a vehicle; the fender bracket is connected to a fender of the vehicle; a top end of the middle mounting bracket is connected to the upper mounting bracket, and a bottom end of the middle mounting bracket is connected to the lower mounting bracket; a rear end of the upper mounting bracket is connected to a top end of the reinforcing bracket via the fender bracket and the connecting plate in sequence; a bottom end of the reinforcing bracket is connected to the lower mounting bracket via at least one blind rivet; the fender bracket, the connecting plate and the reinforcing bracket are all arranged on an outer side relative to the middle mounting bracket; a first mounting structure is provided near an inner end of the upper mounting bracket; the fender bracket is provided with a second mounting structure; a third mounting structure is provided near the bottom end of the middle mounting bracket; a fourth mounting structure is provided near the bottom end of the reinforcing bracket; and when assembled, an upper part of a headlamp is fixed via the first mounting structure and the second mounting structure, and a lower part of the headlamp is fixed via the third mounting structure and the fourth mounting structure.
A cartridge configured to be received in a receiving space of a connector, said connector comprising a lower base member and a shell that extends from the lower base member and surrounds the receiving space of the connector, to form a teatcup configured to be attached to the teat of an animal to be milked, wherein the cartridge comprises an elongated sleeve extending in parallel with a longitudinal central axis (x) and having an upper end section and a lower end section, a barrel pre-mounted in the elongated sleeve and having an inner space for receiving said teat, a pulsation chamber formed between an inner surface of the elongated sleeve and an outer surface of the barrel, and a head member comprising a lip surrounding an opening to the inner space, wherein the head member is provided at the upper end section, characterized in that the elongated sleeve has a flange extending outwardly at the upper end section, that the head member comprises a plurality of locking members each gripping the flange, and that each of the locking members extends towards the lower end section (8") and beyond the flange, wherein each of the locking members comprises an inwardly extending portion which comprises an engagement surface turned away from the lower end section (8"). wherein the cartridge comprises an elongated sleeve extending in parallel with a longitudinal central axis (x) and having an upper end section and a lower end section, a barrel pre-mounted in the elongated sleeve and having an inner space for receiving said teat, a pulsation chamber formed between an inner surface of the elongated sleeve and an outer surface of the barrel, and a head member comprising a lip surrounding an opening to the inner space, wherein the head member is provided at the upper end section, characterized in that the elongated sleeve has a flange extending outwardly at the upper end section, that the head member comprises a plurality of locking members each gripping the flange, and that each of the locking members extends towards the lower end section (8") and beyond the flange, wherein each of the locking members comprises an inwardly extending portion which comprises an engagement surface turned away from the lower end section (8").
An optical writing device comprising: two or more light sources; a polyphase clock generator configured to generate a polyphase clock signal where a phase is shifted and made different from each other by a phase difference T/P, where T denotes a cycle and P denotes a number of phase; a pixel clock generator configured to measure a scanning speed of one of the two or more light sources and generate a pixel clock of a cycle corrected according to the measured scanning speed; a pulse data generation and output unit configured to generate pulse width data and shift data for the pixel clock generated by the pixel clock generator to output the generated pulse width data and the generated shift data for each one of the two or more light sources; and a plurality of image pulse generation and output units, disposed for the two or more light sources in association with each other, configured to generate an image pulse, having a pulse width determined by the pulse width data, where a pulse timing is shifted according to the shift data, wherein the plurality of image pulse generation and output units are supplied with the pixel clock in common, characterized in that the pixel clock generator corrects a cycle of the pixel clock so as to be an integral multiple of the phase difference T/P, and the pulse width data and the shift data are set so as to be an integral multiple of the phase difference T/P. two or more light sources; a polyphase clock generator configured to generate a polyphase clock signal where a phase is shifted and made different from each other by a phase difference T/P, where T denotes a cycle and P denotes a number of phase; a pixel clock generator configured to measure a scanning speed of one of the two or more light sources and generate a pixel clock of a cycle corrected according to the measured scanning speed; a pulse data generation and output unit configured to generate pulse width data and shift data for the pixel clock generated by the pixel clock generator to output the generated pulse width data and the generated shift data for each one of the two or more light sources; and a plurality of image pulse generation and output units, disposed for the two or more light sources in association with each other, configured to generate an image pulse, having a pulse width determined by the pulse width data, where a pulse timing is shifted according to the shift data, wherein the plurality of image pulse generation and output units are supplied with the pixel clock in common, characterized in that the pixel clock generator corrects a cycle of the pixel clock so as to be an integral multiple of the phase difference T/P, and the pulse width data and the shift data are set so as to be an integral multiple of the phase difference T/P.
Method for operating a virtual reality system in which a virtual environment is displayed from a first virtual perspective by means of a first pair of virtual reality glasses worn by a first person, wherein the first virtual perspective is predefined according to a detected head position and/or head orientation of the first person, wherein - the same virtual environment is displayed likewise from the first virtual perspective by means of one further pair of virtual reality glasses (2, 3, 4) worn by a further person (9, 10, 11), and - a total available display area of the further pair of virtual reality glasses (2, 3, 4) is divided into a first display area and into a second display area, wherein, in the first display area, the virtual environment is displayed from the first virtual perspective and, in the second display area, the virtual environment is displayed from a further virtual perspective which is predefined according to a detected head position and/or head orientation of the further person (9, 10, 11), characterised in that the further pair of virtual reality glasses (2, 3, 4) is controlled so that the second display area is selected to be larger, and the first display area is correspondingly selected to be smaller, as the difference between detected head movements of the first person and the further person (9, 10, 11) respectively increases. - the same virtual environment is displayed likewise from the first virtual perspective by means of one further pair of virtual reality glasses (2, 3, 4) worn by a further person (9, 10, 11), and - a total available display area of the further pair of virtual reality glasses (2, 3, 4) is divided into a first display area and into a second display area, wherein, in the first display area, the virtual environment is displayed from the first virtual perspective and, in the second display area, the virtual environment is displayed from a further virtual perspective which is predefined according to a detected head position and/or head orientation of the further person (9, 10, 11),
A method for wireless communication at a user equipment, UE, comprising: receiving (1205, 1305, 1405, 1505), from a base station, first downlink control information scheduling a downlink transmission at the UE, the first downlink control information comprising an indication of a first resource allocation for the downlink transmission; determining (1210, 1310, 1420, 1510) that the downlink transmission includes a downlink data message multiplexed with second downlink control information; receiving (1215, 1315, 1425, 1515), from the base station, an indication of a second resource allocation for the second downlink control information; determining (1220, 1325, 1430, 1525) a transport block size of the downlink data message based at least in part on the first resource allocation for the downlink transmission and the second resource allocation for the second downlink control information; and processing (1225, 1330, 1435, 1530) the downlink transmission based at least in part on the transport block size of the downlink data message. receiving (1205, 1305, 1405, 1505), from a base station, first downlink control information scheduling a downlink transmission at the UE, the first downlink control information comprising an indication of a first resource allocation for the downlink transmission; determining (1210, 1310, 1420, 1510) that the downlink transmission includes a downlink data message multiplexed with second downlink control information; receiving (1215, 1315, 1425, 1515), from the base station, an indication of a second resource allocation for the second downlink control information; determining (1220, 1325, 1430, 1525) a transport block size of the downlink data message based at least in part on the first resource allocation for the downlink transmission and the second resource allocation for the second downlink control information; and processing (1225, 1330, 1435, 1530) the downlink transmission based at least in part on the transport block size of the downlink data message.
A method of controlling a DC-to-AC Modular Multilevel Converter, MMC, having a three-phase AC side connected to a three-phase AC network and having a DC side connected to a DC network, wherein the MMC has a double-star topology with a plurality of phase-legs, each phase-leg having a first branch and a second branch, each of the first and second branches comprising a plurality of series-connected converter cells, the method comprising: obtaining a pre-calculated Optimized Pulse Pattern, OPP, for the MMC; adapting the OPP to the MMC by means of closed-loop pulse pattern control which is a Model Predictive Pulse Pattern Control, MP3C, having a receding horizon policy, and based on the adapted OPP, sending firing signals to the plurality of cells of each branch, wherein the MMC has a switching frequency of less than 125 Hz and wherein the three-phase AC network has a nominal fundamental frequency of 50 or 60 Hz. obtaining a pre-calculated Optimized Pulse Pattern, OPP, for the MMC; adapting the OPP to the MMC by means of closed-loop pulse pattern control which is a Model Predictive Pulse Pattern Control, MP3C, having a receding horizon policy, and based on the adapted OPP, sending firing signals to the plurality of cells of each branch, wherein the MMC has a switching frequency of less than 125 Hz and wherein the three-phase AC network has a nominal fundamental frequency of 50 or 60 Hz.
A gas turbine engine (20; 120; 220) comprising: a drive turbine (36; 136; 236) configured to drive a fan section (22; 122; 222); a speed change mechanism (38; 138; 238) connected to the drive turbine (36; 136; 236) and located immediately aft of the drive turbine (36; 136; 236) and aft of the fan section (22; 122; 222), an output of the speed change mechanism (38; 138; 238) connected to the fan section (22; 122; 222), wherein the drive turbine (36; 136; 236) is a fixed stator turbine and the speed change mechanism (38; 138; 238) is an epicyclical gearbox, characterized in that: a turbine drive shaft (45; 145; 245) connects the drive turbine (36; 136; 236) to a sun gear of the epicyclical gearbox. a drive turbine (36; 136; 236) configured to drive a fan section (22; 122; 222); a speed change mechanism (38; 138; 238) connected to the drive turbine (36; 136; 236) and located immediately aft of the drive turbine (36; 136; 236) and aft of the fan section (22; 122; 222), an output of the speed change mechanism (38; 138; 238) connected to the fan section (22; 122; 222), wherein the drive turbine (36; 136; 236) is a fixed stator turbine and the speed change mechanism (38; 138; 238) is an epicyclical gearbox, characterized in that: a turbine drive shaft (45; 145; 245) connects the drive turbine (36; 136; 236) to a sun gear of the epicyclical gearbox.