mhurhangee/ep-ind-claims huggingface dataset:
Clamp-on flowmeter for securing to a measuring tube through which a medium flows in the direction of the tube axis, with at least two ultrasonic converters (2, 3) which are arranged on the measuring tube on a connection line running parallel to the tube axis, wherein said ultrasonic converters (2, 3) alternately emit and receive ultrasonic measuring signals in the flow direction and against the flow direction, and with a control/evaluation unit which determines and/or monitors the volume flow of the medium in the measuring tube on the basis of the transit time difference of the ultrasonic measuring signals that propagate in the direction of flow and against the direction of flow, characterized in that the ultrasonic converters (2, 3) are designed in such a way that they send and receive ultrasonic measuring signals or sound fields with a large angle of aperture (γ) or with a large beam expansion, and in that the two ultrasonic converters (2, 3) are arranged at a defined distance from one another, wherein the distance between the two ultrasonic converters (2, 3) depends exclusively on the angle of aperture (γ) of the ultrasonic measuring signals or the sound fields, and wherein the distance between the two ultrasonic converters (2, 3) is independent of other system and/or process variables ( w, cr, c, di), wherein the minimum distance ( Lmin) between the two ultrasonic converters (2, 3) and the angle of aperture (γ) of the ultrasonic measuring signals and/or sound fields is such that the ultrasonic measuring signals prorogate over at least two sound paths (SP1, SP2) which differ in terms of the number of traverses ( n), wherein a traverse describes the partial area of a sound path SP1; SP2 at which an ultrasonic measuring signal passes through the measuring tube once, wherein the control/evaluation unit is designed in such a way that it calculates at least one of the system or process variables ( w, cr, c, di) on the basis of the transit times ( t(n)) of the ultrasonic measuring signals that propagate in the direction of flow and against the direction of flow in the measuring tube through which medium flows on at least two different sound paths (SP1, SP2), said variable being required to determine the volume flow of the medium in the measuring tube, wherein the at least one system or process variable is the internal diameter ( di) of the measuring tube, the wall thickness ( w) of the measuring tube, the sonic velocity ( cr) of the material from which the measuring tube is made or the sonic velocity (c) of the medium.
A method for conducting random access on a small cell under dual connectivity, comprising: notifying, by a base station to which a master control cell belongs in the dual connectivity, a User Equipment, UE, to initiate a random access process on a designated small cell, and/or notifying a dedicated random access preamble parameter corresponding to a dedicated random access preamble of the designated small cell; sending on the designated small cell, by the UE, the dedicated random access preamble corresponding to the designated small cell to a base station to which the designated small cell belongs after receiving the notification; and receiving, by the UE, a random access response message sent by the base station to which the master control cell in the dual connectivity belongs or the base station to which the designated small cell belongs; the method further comprising: before sending on the designated small cell, by the UE, the dedicated random access preamble corresponding to the designated small cell to the base station to which the designated small cell belongs, notifying, by the base station to which the master control cell belongs, that the UE initiates the random access process on the designated small cell and the corresponding dedicated random access preamble parameter to the base station to which the designated small cell belongs. notifying, by a base station to which a master control cell belongs in the dual connectivity, a User Equipment, UE, to initiate a random access process on a designated small cell, and/or notifying a dedicated random access preamble parameter corresponding to a dedicated random access preamble of the designated small cell; sending on the designated small cell, by the UE, the dedicated random access preamble corresponding to the designated small cell to a base station to which the designated small cell belongs after receiving the notification; and receiving, by the UE, a random access response message sent by the base station to which the master control cell in the dual connectivity belongs or the base station to which the designated small cell belongs; the method further comprising: before sending on the designated small cell, by the UE, the dedicated random access preamble corresponding to the designated small cell to the base station to which the designated small cell belongs, notifying, by the base station to which the master control cell belongs, that the UE initiates the random access process on the designated small cell and the corresponding dedicated random access preamble parameter to the base station to which the designated small cell belongs. before sending on the designated small cell, by the UE, the dedicated random access preamble corresponding to the designated small cell to the base station to which the designated small cell belongs, notifying, by the base station to which the master control cell belongs, that the UE initiates the random access process on the designated small cell and the corresponding dedicated random access preamble parameter to the base station to which the designated small cell belongs.
A connector with an electrically conductive contact jack to house a contact pin and to make an electrical connection with the contact pin, in which the contact jack is accessible via an opening in the connector, in which a closing element to close the opening is mounted movably inside the contact jack, characterized in that a distal section of the closing element has a diameter increase in the mating direction, and in that the contact jack has a contact section with contact points, that are separated from one another by means of recesses, and that the diameter increase corresponds with the contact section in such a way that the contact section opens beforehand in a plug-in process.
A biocatalytic process for producing an active pharmaceutical ingredient selected from Clofarabine, Cladribine, Cytarabine and Zidovudine, wherein said process comprises, preferably in an one-step/one-pot reaction, the addition of an enzyme having nucleoside deoxyribosyltransferase activity, either native or recombinant, in a suitable aqueous reaction medium and under suitable reactions conditions to a mixture comprising i) at least a D isomer of a nucleoside selected from 2'-fluoro-arabinofuranosyl-2'-deoxyuridine, 2'-deoxyuridine, 1-β-D-arabinofuranosyl)uracil, or 3'-amino-2',3'-dideoxyadenosine and ii) at least a free nucleobase, to be transferred by the enzyme having NDT activity, selected from 2-chloroadenine, cytosine or thymine, wherein the enzyme having NDT activity is a NDT isolated from a microorganism selected from Lactobacillus or Lactococcus species. i) at least a D isomer of a nucleoside selected from 2'-fluoro-arabinofuranosyl-2'-deoxyuridine, 2'-deoxyuridine, 1-β-D-arabinofuranosyl)uracil, or 3'-amino-2',3'-dideoxyadenosine and ii) at least a free nucleobase, to be transferred by the enzyme having NDT activity, selected from 2-chloroadenine, cytosine or thymine,
A variable valvetrain for actuating a valve of an internal combustion engine, the variable valvetrain being adapted to be arranged in a cylinder head portion of the internal combustion engine, the variable valvetrain comprising: an actuation system for periodically opening and closing the valve, the actuation system comprising - a rotatable valve crank; - a transmission unit for transmitting the rotational movement of the valve crank into a periodical lifting movement for actuating the valve; and - a lubricant supply system, wherein the valve crank is rotatably mounted about a valve crank axis by a valve crank bearing, the valve crank bearing connecting the valve crank to a rigid support body, and wherein the support body is mounted on a pivot shaft to be pivotable about a pivot axis, wherein pivoting of the support body about the pivot axis causes a change in the position of the valve crank axis along a circle segment about the pivot axis for adjusting the valve lift, and wherein the lubricant supply system comprises a support-body lubricant supply channel passing from the pivot shaft through the support body to the valve crank bearing, and wherein the lubricant supply system further comprises a lubricant outlet (130, 140, 150, 160) from the support body, and wherein the lubricant outlet (130, 140, 150, 160) is an intermittent lubricant outlet for intermittently letting out lubricant, wherein the lubricant outlet (130, 140, 150, 160) lets out the lubricant from within the support body to an unpressurized volume. an actuation system for periodically opening and closing the valve, the actuation system comprising - a rotatable valve crank; - a transmission unit for transmitting the rotational movement of the valve crank into a periodical lifting movement for actuating the valve; and - a lubricant supply system, wherein - a rotatable valve crank; - a transmission unit for transmitting the rotational movement of the valve crank into a periodical lifting movement for actuating the valve; and - a lubricant supply system, wherein the valve crank is rotatably mounted about a valve crank axis by a valve crank bearing, the valve crank bearing connecting the valve crank to a rigid support body, and wherein the support body is mounted on a pivot shaft to be pivotable about a pivot axis, wherein pivoting of the support body about the pivot axis causes a change in the position of the valve crank axis along a circle segment about the pivot axis for adjusting the valve lift, and wherein the lubricant supply system comprises a support-body lubricant supply channel passing from the pivot shaft through the support body to the valve crank bearing, and wherein the lubricant supply system further comprises a lubricant outlet (130, 140, 150, 160) from the support body, and wherein the lubricant outlet (130, 140, 150, 160) is an intermittent lubricant outlet for intermittently letting out lubricant, wherein the lubricant outlet (130, 140, 150, 160) lets out the lubricant from within the support body to an unpressurized volume.
An array antenna system, wherein the array antenna system comprises M antenna radiation units, a strip line feed system, a strip line ground plane, and a strip line cavity, the strip line feed system comprises a phase shift circuit and N first printed circuit boards, PCBs, configured to implement a power allocation function and/or a phase compensation function, M is an integer greater than 1, 1 ≤ N ≤ M, and N is an integer; the phase shift circuit is located in the strip line cavity, P first PCBs are located on an outer surface of the strip line cavity, and P is an integer greater than 1 and less than or equal to N; all or some of the M antenna radiation units are connected to signal planes of the N first PCBs, and the signal planes of the N first PCBs are in a radio frequency connection to the phase shift circuit by using probes; and ground planes of the N first PCBs are in a radio frequency connection to the strip line ground plane.
A matte coating agent comprising 1 to 150 parts by mass of resin particles A having a volume average particle diameter of 1 to 5 μm, 1 to 150 parts by mass of resin particles B having a volume average particle diameter of 5 to 10 μm, and 1 to 150 parts by mass of resin particles C having a volume average particle diameter of 10 to 20 μm based on 100 parts by mass of a polyurethane resin, the total content of the resin particles A, the resin particles B, and the resin particles C being 3 to 250 parts by mass based on 100 parts by mass of the polyurethane resin, and the volume average particle diameter becoming larger sequentially from the resin particles A to the resin particles B to the resin particles C.
Revolving door, comprising the following features: - comprising a rotor; - the rotor comprises at least two blades and a rotor drive; - the rotor rotates about a central axis; - comprising a drive device by means of which the rotor drive, and thereby the rotor, can be driven and/or braked; - the drive device comprises a main drive motor having a main-drive-motor shaft which is coupled for movement to a power transmission means via a gear means, which power transmission means is coupled for movement to the rotor drive for driving the rotor; - the drive device comprises an auxiliary drive motor (20, 60) having an auxiliary-drive-motor shaft (22, 62); - the main-drive-motor shaft is at least indirectly coupled for rotation to the auxiliary-drive-motor shaft (22, 62), so that the auxiliary-drive-motor shaft (22, 62) is coupled for movement to the rotor, characterised by the following further features: - the drive device further comprises a coupling means; and - the main-drive-motor shaft is coupled for rotation to the auxiliary-drive-motor shaft by means of the coupling means. - comprising a rotor; - the rotor comprises at least two blades and a rotor drive; - the rotor rotates about a central axis; - comprising a drive device by means of which the rotor drive, and thereby the rotor, can be driven and/or braked; - the drive device comprises a main drive motor having a main-drive-motor shaft which is coupled for movement to a power transmission means via a gear means, which power transmission means is coupled for movement to the rotor drive for driving the rotor; - the drive device comprises an auxiliary drive motor (20, 60) having an auxiliary-drive-motor shaft (22, 62); - the main-drive-motor shaft is at least indirectly coupled for rotation to the auxiliary-drive-motor shaft (22, 62), so that the auxiliary-drive-motor shaft (22, 62) is coupled for movement to the rotor, - the drive device further comprises a coupling means; and - the main-drive-motor shaft is coupled for rotation to the auxiliary-drive-motor shaft by means of the coupling means.
Process for the preparation of pulverulent Ni,Co-mixed hydroxides of the general formula Ni x Co 1-x 2, where 0 < x < 1 and the mixed hydroxide has a BET surface, measured according to ASTM D 3663, of less than 20 m 2 /g and a tap density, measured according to ASTM B 527, of greater than or equal to 2.4 g/cm 3, by precipitation, consisting of the following steps: - provision of at least a first and a second reactant solution, - combined feed of at least the first and the second reactant solution to a reactor which has an oblique inclined clarifier integrated into the reactor, - generation of a homogeneously intensively mixed reaction zone in the reactor, - precipitation of the compounds in the reaction zone and formation of a product suspension consisting of insoluble product and mother liquor, - partial separation of the mother liquor from the insoluble product via the inclined clarifier, where a fine-grain fraction with a defined upper particle-diameter limit is set in the overflow of the inclined clarifier and optionally the turbid liquor is partially removed, so that a precipitation product suspension is prepared, the concentration of the precipitation product of which is greater than the stoichiometric concentration, - removal of the suspension from the reactor, - filtration and drying of the precipitation product. - provision of at least a first and a second reactant solution, - combined feed of at least the first and the second reactant solution to a reactor which has an oblique inclined clarifier integrated into the reactor, - generation of a homogeneously intensively mixed reaction zone in the reactor, - precipitation of the compounds in the reaction zone and formation of a product suspension consisting of insoluble product and mother liquor, - partial separation of the mother liquor from the insoluble product via the inclined clarifier, where a fine-grain fraction with a defined upper particle-diameter limit is set in the overflow of the inclined clarifier and optionally the turbid liquor is partially removed, so that a precipitation product suspension is prepared, the concentration of the precipitation product of which is greater than the stoichiometric concentration, - removal of the suspension from the reactor, - filtration and drying of the precipitation product.
A cheese slicer comprising: a handle having a first end and a second end; a guiding plate having a proximal end pivotally connected to the first end of the handle, and a distal end; a slicing plate having a slicing blade, wherein the slicing blade and the distal end of the guiding plate together define a gap as slice thickness for an item to be sliced; a linkage accommodated in the handle and movably resting against the guiding plate so that the movement of the linkage enables the guiding plate to pivot around the first end of the handle relative to the slicing blade thereby to provide variable slice thickness for the item to be sliced; and an actuator assembly in operative connection with the linkage to move the linkage on the guiding plate, characterised in that the linkage is configured to slide to a plurality of resting positions on the guiding plate to create a plurality of predetermined slice thicknesses, and the actuator assembly is configured as a ballpoint pen ratchet mechanism provided in the handle, and which is latchable in a plurality of locked positions so that the plurality of locked positions respectively correspond to the plurality of resting positions of the linkage on the guiding plate. a handle having a first end and a second end; a guiding plate having a proximal end pivotally connected to the first end of the handle, and a distal end; a slicing plate having a slicing blade, wherein the slicing blade and the distal end of the guiding plate together define a gap as slice thickness for an item to be sliced; a linkage accommodated in the handle and movably resting against the guiding plate so that the movement of the linkage enables the guiding plate to pivot around the first end of the handle relative to the slicing blade thereby to provide variable slice thickness for the item to be sliced; and an actuator assembly in operative connection with the linkage to move the linkage on the guiding plate, characterised in that the linkage is configured to slide to a plurality of resting positions on the guiding plate to create a plurality of predetermined slice thicknesses, and the actuator assembly is configured as a ballpoint pen ratchet mechanism provided in the handle, and which is latchable in a plurality of locked positions so that the plurality of locked positions respectively correspond to the plurality of resting positions of the linkage on the guiding plate.
A structure (110,120,130,140,160,170,180) of artificial endo-urethral sphincter comprising: - at least one hollow rigid body (11,71), configured for being fixed within the walls of a urethral-bladder lumen of a patient, in particular for being fixed within the urethral walls, said hollow rigid body (11,71) defining a longitudinal channel arranged to convey urine from an upstream section towards a downstream section; - a valve element housed within said longitudinal channel; - a closure means for causing said valve element to turn from a closed configuration, in which said urine cannot flow through said longitudinal channel, to an open configuration, in which said urine can flow through said longitudinal channel, and vice-versa, wherein said structure comprises a safety element (23,16) that is arranged within said longitudinal channel of said hollow rigid body (11,71) downstream of said valve element, wherein said safety element (23,16) comprises a block means structured for turning from a block configuration to a release configuration, wherein said safety element (23,16) is configured, in said block configuration, for preventing an unwanted flow of urine through said valve element, and wherein said safety element is configured, in said release configuration, for enabling a free flow of urine that has flown through said valve element, characterised in that said closure means of said valve element comprises resilient walls that, in said closed configuration, are at a rest condition and, in said open configuration, are configured for being deformed due to an abdominal pressure increase caused by said patient, up to a predetermined opening pressure of said valve element. - at least one hollow rigid body (11,71), configured for being fixed within the walls of a urethral-bladder lumen of a patient, in particular for being fixed within the urethral walls, said hollow rigid body (11,71) defining a longitudinal channel arranged to convey urine from an upstream section towards a downstream section; - a valve element housed within said longitudinal channel; - a closure means for causing said valve element to turn from a closed configuration, in which said urine cannot flow through said longitudinal channel, to an open configuration, in which said urine can flow through said longitudinal channel, and vice-versa,
A method for scheduling and transmitting a Multimedia Broadcast Multicast Service, MBMS, comprising: for each multicast radio interface channel, a lower layer network element scheduling a MBMS born by the multicast radio interface channel according to a scheduling period of the multicast radio interface channel, wherein data of the MBMS are scheduled and scheduling information is provided in a Multicast/Broadcast over Single Frequency Network, MBSFN, subframe occupied by the multicast radio interface channel in a resource allocation period within the scheduling period; and said lower layer network element sending to a user equipment a signaling indicating resource allocation information and scheduling period information of each multicast radio interface channel, and sending the data of the MBMS and said scheduling information to the user equipment, wherein one scheduling period of the multicast radio interface channel corresponds to one or more said resource allocation periods in a same time period, the location information of the data of the MBMS in said scheduling information is represented by a number of a last MBSFN subframe occupied by the data of the MBMS in the scheduling period, and numbers of said MBSFN subframes are obtained by uniformly numbering all the MBSFN subframes occupied by the multicast radio interface channel in each scheduling period independently. for each multicast radio interface channel, a lower layer network element scheduling a MBMS born by the multicast radio interface channel according to a scheduling period of the multicast radio interface channel, wherein data of the MBMS are scheduled and scheduling information is provided in a Multicast/Broadcast over Single Frequency Network, MBSFN, subframe occupied by the multicast radio interface channel in a resource allocation period within the scheduling period; and said lower layer network element sending to a user equipment a signaling indicating resource allocation information and scheduling period information of each multicast radio interface channel, and sending the data of the MBMS and said scheduling information to the user equipment, wherein one scheduling period of the multicast radio interface channel corresponds to one or more said resource allocation periods in a same time period, the location information of the data of the MBMS in said scheduling information is represented by a number of a last MBSFN subframe occupied by the data of the MBMS in the scheduling period, and numbers of said MBSFN subframes are obtained by uniformly numbering all the MBSFN subframes occupied by the multicast radio interface channel in each scheduling period independently.