mhurhangee/ep-ind-claims huggingface dataset:
A furniture board for a piece of furniture, said furniture board having a top surface and a bottom surface, a recess being provided in the furniture board in which a housing is arranged, said housing having an essentially cylindrical contour, said housing having a cut-out in the form of a cylinder segment the height (h 1) of which is smaller than the height (h) of the housing, and said cut-out being formed by - a first lateral wall extending essentially perpendicularly with respect to a bottom surface of the housing, and - a second lateral wall extending essentially parallel with respect to a top surface of the housing, wherein said housing has an electronic component arranged therein that is configured to transmit electric energy by induction to an electric device which may be arranged on the top surface of the furniture board relative to the electronic component, in particular for charging an energy storage device of the electric device, said housing being visible on the top surface of the furniture board, said electronic component having at least one wire-wound coil which is essentially formed in an annular shape and has an outer diameter of between 30 mm and 100 mm, an inner diameter of between 15 mm and 25 mm, and a thickness of between 1.5 mm and 2.5 mm, said coil being disposed within the housing and facing towards the top surface of the housing, and said top surface of said housing having a robust, non-metallic material. - a first lateral wall extending essentially perpendicularly with respect to a bottom surface of the housing, and - a second lateral wall extending essentially parallel with respect to a top surface of the housing,
A high performance, thixotropic polyurea/overbased calcium sulfonate complex hybrid grease with a worked cone penetration rating of 295 or less, comprising, 70 to 85 wt% oleaginous medium in which there is homogeneously dispersed; 8 to 21 wt% overbased calcium sulfonate complex thickener comprising fine particles of calcium carbonate in calcite form; 0.5 to 6.5 wt% polyurea thickener; 0.05 to 3 wt% calcium borate or calcium borate complex; 0.5 to 3.5 wt% calcium soap of C 12-24 aliphatic fatty acids; and 0 to 3 wt% lime or calcium hydroxide, wherein all percentages are weight % based on the total weight of the grease. 70 to 85 wt% oleaginous medium in which there is homogeneously dispersed; 8 to 21 wt% overbased calcium sulfonate complex thickener comprising fine particles of calcium carbonate in calcite form; 0.5 to 6.5 wt% polyurea thickener; 0.05 to 3 wt% calcium borate or calcium borate complex; 0.5 to 3.5 wt% calcium soap of C 12-24 aliphatic fatty acids; and 0 to 3 wt% lime or calcium hydroxide, wherein all percentages are weight % based on the total weight of the grease.
A method of accessing data at a device (1; 5; 6a, 6b; 8; 10), wherein the device comprises a secure element (2; 5a; 7a, 7b; 9; 11) and wherein the data is stored remotely from the device or in removable storage, the method comprising the following steps: (i) registering an identification code of the secure element with the data; (ii) entering a passcode or PIN at the device (1; 5; 6a, 6b; 8; 10); (iii) verifying the passcode or PIN in the secure element (2; 5a; 7a, 7b; 9; 11) of the device; (iv) if the verification is successful, sending a request to access the data from the device (1; 5; 6a, 6b; 8; 10) to a remote data access controller, the request including the result of the verification and the identification code of the secure element (2; 5a; 7a, 7b; 9; 11); (v) verifying, based at least partly on the identification code, whether access to the data is to be allowed or denied; and (vi) allowing or denying the device (1; 5; 6a, 6b; 8; 10) access to the data accordingly, wherein identification codes of more than one secure element (2; 5a; 7a, 7b; 9; 11) can be registered with the data. (i) registering an identification code of the secure element with the data; (ii) entering a passcode or PIN at the device (1; 5; 6a, 6b; 8; 10); (iii) verifying the passcode or PIN in the secure element (2; 5a; 7a, 7b; 9; 11) of the device; (iv) if the verification is successful, sending a request to access the data from the device (1; 5; 6a, 6b; 8; 10) to a remote data access controller, the request including the result of the verification and the identification code of the secure element (2; 5a; 7a, 7b; 9; 11); (v) verifying, based at least partly on the identification code, whether access to the data is to be allowed or denied; and (vi) allowing or denying the device (1; 5; 6a, 6b; 8; 10) access to the data accordingly,
An apparatus for laser converting sheet material, said apparatus comprising a support member and a laser radiating station, wherein said support member is configured to support a sheet material in target position to said laser radiating station, characterised in that the support member has a gold facing layer.
A mouthpiece attachable to a smoking article rod portion having a recess defined by a tubular element, comprising an elongate cylindrical element formed from plastic as a hollow tube, having adjacent first and second portions each extending partially along the length of the cylindrical element, the first portion being arranged to be inserted into the recess by a user, and an annular element arranged around the second portion of the cylindrical element, the annular element having a larger external diameter than the cylindrical element, wherein the annular element has a surface which is arranged to abut a mouth end surface of the tubular element when the first portion is inserted into the recess by the user, so as to prevent further insertion of the first portion.
A process for organocatalytic ring-opening polymerization of at least one monomer M suitable for ring-opening polymerization selected from the group comprising alkylene oxides selected from the group consisting of ethylene oxide, propylene oxide and butylene oxide or of mixtures thereof, wherein, in a step (i), at least one N-heterocyclic compound of the formula where A is selected from the group consisting of N, 0 and S, preferably N - where no R2 radical is present when A is 0 or S - and where R1 and R2 are each independently selected from alkyl and aryl, and where R3, R4 and R5 are each independently selected from H, alkyl, aryl, and where ring closures between R1 and R3, R3 and R4, and R4 and R2 are also possible, is subjected in the presence of at least one Zerevitinov-active compound Z1 to a temperature of at least 80°C, preferably at least 100°C, for a period of at least 30 seconds, preferably at least 5 minutes, and, in a step (ii), the monomer M is added and reacted, preferably in the presence of a Zerevitinov-active compound Z2.
Plunging siphon for dosing powder, comprising a plunging sleeve and a dosing piston with an end face for ejecting the powder from the plunging sleeve, wherein the plunging sleeve extends along a longitudinal axis and has a free end, wherein the plunging sleeve has a closed inner circumferential wall extending continuously around the longitudinal axis on its inside, wherein the inner circumferential wall extends in the direction of the longitudinal axis to the free end of the plunging sleeve and there terminates in a plunging edge extending continuously around the longitudinal axis, wherein the dosing piston is guided within the inner circumferential wall for displacement parallel to the longitudinal axis, and wherein the end face bounds a dosing chamber together with the inner circumferential wall in a retracted dosing position of the dosing piston, characterised in that the inner circumferential wall is in the region of the dosing chamber divided into a guide section and a release section adjoining the guide section and extending to the plunging edge, wherein the inner circumferential wall extends parallel to the longitudinal axis in the guide section, and wherein the release section encloses a cross-section of the dosing chamber which is radially widened compared to the guide section.
Method for manoeuvring a yacht by means of a control element formed as a joystick, wherein the joystick is tilted in the direction of a longitudinal axis (y) and a transverse axis (x), extending perpendicular to the longitudinal axis (y), of the yacht to initiate forward or reverse movements and transverse movements of the yacht and is turned by a turning angle (+(α xj, -α zj) about its longitudinal axis (z u) to initiate yawing movements of the yacht, wherein the yacht has a swivel drive, formed as an individual drive, with a thrust vector which can swivel about a vertical axis, and has a bow thruster with a thrust vector parallel to the transverse axis (x) and wherein the control movements of the joystick are logically transferred to the swivel drive and the bow thruster, characterized in that the bow thruster and the swivel drive are activated by a tilting of the joystick in its transverse direction (+x j, -x j) in such a way that their thrust vectors act in the same direction of thrust parallel to the transverse axis (x) of the yacht and in that the strengths of the two thrust vectors are set by way of an electronic control unit in dependence on the turning angle (+α zj, -α zj) of the joystick.
Use of an aqueous composition of acetylcysteine suitable for intravenous injection comprising between 200 and 500 mg/ml acetylcysteine or pharmaceutically acceptable salts thereof, wherein said composition contains no EDTA or pharmaceutically acceptable salts thereof, and wherein the pH of the composition is from 6.5 to 7.0, for the preparation of a medicament for the treatment of acetaminophen overdose.
A two-frequency measurement, TFM, system, comprising a delay line type SAW, surface acoustic wave, sensor, and an electrical signal processing device, wherein with respect to two frequencies f 1 and f 2, f 2 = 3fi, the delay line type SAW sensor can transmit the two frequencies f 1 and f 2 and receive two frequencies one of which is equal to or more than f 1 (1 - 1 / 10) but equal to or less than f 1 (1 + 1 / 10) and the other of which is equal to or more than f 2 (1 - 1 / 10) but equal to or less than f 2 (1 + 1 / 10), and the electrical signal processing device includes an ADC, analog-to-digital converter, which samples a signal from the delay line type SAW sensor, a sampling frequency f S of the ADC is f S = 5f 1 / 4 and among signals sampled by the ADC, signals of two frequencies f u1 = f 1 / 4 and f u2 = f 1 / 2 are used for obtaining a temperature-compensated sensor response by two-frequency measurement. transmit the two frequencies f 1 and f 2 and receive two frequencies one of which is equal to or more than f 1 (1 - 1 / 10) but equal to or less than f 1 (1 + 1 / 10) and the other of which is equal to or more than f 2 (1 - 1 / 10) but equal to or less than f 2 (1 + 1 / 10), and
A method of building a gravel column in soil for consolidating the soil by using a soil improvement system comprising a reservoir connected to a gravel transferring means (105, 107) leading to the soil, the method comprising: transferring (507, 519, 525, 803) the gravel through the gravel transferring means (105, 107) to the soil, wherein - in one step liquid is fed into the gravel transferring means (105, 107), and - in another step gravel is fed into the gravel transferring means (105, 107), wherein liquid is used as a transfer medium, from the reservoir to the soil to build the gravel column. - in one step liquid is fed into the gravel transferring means (105, 107), and - in another step gravel is fed into the gravel transferring means (105, 107),
A sensor for quantification of a thyroid hormone, the sensor comprising: a. a substrate, and b. a combination of at least two iodothyronine deiodinases and an anti-rT3 antibody, immobilized on a surface of the substrate, wherein the combination comprises: • type 1 iodothyronine deiodinase, type 2 iodothyronine deiodinase, and anti-rT3 antibody, or • type 2 iodothyronine deiodinase, type 3 iodothyronine deiodinase, and anti-rT3 antibody. a. a substrate, and b. a combination of at least two iodothyronine deiodinases and an anti-rT3 antibody, immobilized on a surface of the substrate, wherein the combination comprises: • type 1 iodothyronine deiodinase, type 2 iodothyronine deiodinase, and anti-rT3 antibody, or • type 2 iodothyronine deiodinase, type 3 iodothyronine deiodinase, and anti-rT3 antibody. • type 1 iodothyronine deiodinase, type 2 iodothyronine deiodinase, and anti-rT3 antibody, or • type 2 iodothyronine deiodinase, type 3 iodothyronine deiodinase, and anti-rT3 antibody.
A method for processing a plurality of transactions, of asynchronous, nested transactions and/or transactions from concurrently executed processes, in a portable data carrier, in which a two-stage management of transactions is effected, wherein in a first stage an allocation is effected of transactions to respective processes and a validation is requested for the transactions, and wherein in a second stage the requested validations are managed using transaction identifiers (11; 11-1, 11-2, 11-3) that are assigned to a respective transaction.
A faucet extension for connecting a water pipe to a fitting with a 1/2" outer thread for connecting to the water pipe and a 1/2" inner thread for connecting to the fitting, characterized in that on an inner circumference, the faucet extension has a drive profile for inserting a socket wrench, and the 1/2"outer thread has a length (l) of at least 30 mm, wherein the 1/2" outer thread and the drive profile have the same length (l).
A method of analyzing at least two or more analytes of a plurality of single cells, said method comprising: (a) providing a plurality of contiguity preserving elements, wherein each CE comprises a single cell; (b) lysing said single cell within each CE, wherein the analytes within said single cell are released within each CE; (c) providing a first reporter moiety to a first analyte within said single cell of each CE; (d) providing a second reporter moiety to a second analyte within said single cell of each CE; (e) modifying said analytes such that at least some of said first and second analytes of said CE comprise said first and second reporter moieties, respectively; (f) combining the CE comprising said analytes comprising said reporter moieties; (g) compartmentalizing the CE comprising said first and second analytes comprising said first and second reporter moieties, respectively into a plurality of compartments; (h) providing a third reporter moiety to said first analyte comprising said first reporter moiety of each CE within said compartments; (i) providing a fourth reporter moiety to said second analyte comprising said second reporter moiety of each CE within said compartments; (j) further modifying said analytes such that at least some first analytes comprise said first and third reporter moieties and at least some second analytes comprise said second and fourth reporter moieties; (k) analyzing said analytes comprising said reporter moieties of each compartment, wherein such analysis detects a single cell which is the source of each analyte. (a) providing a plurality of contiguity preserving elements, wherein each CE comprises a single cell; (b) lysing said single cell within each CE, wherein the analytes within said single cell are released within each CE; (c) providing a first reporter moiety to a first analyte within said single cell of each CE; (d) providing a second reporter moiety to a second analyte within said single cell of each CE; (e) modifying said analytes such that at least some of said first and second analytes of said CE comprise said first and second reporter moieties, respectively; (f) combining the CE comprising said analytes comprising said reporter moieties; (g) compartmentalizing the CE comprising said first and second analytes comprising said first and second reporter moieties, respectively into a plurality of compartments; (h) providing a third reporter moiety to said first analyte comprising said first reporter moiety of each CE within said compartments; (i) providing a fourth reporter moiety to said second analyte comprising said second reporter moiety of each CE within said compartments; (j) further modifying said analytes such that at least some first analytes comprise said first and third reporter moieties and at least some second analytes comprise said second and fourth reporter moieties; (k) analyzing said analytes comprising said reporter moieties of each compartment, wherein such analysis detects a single cell which is the source of each analyte.
A network element (30, 40, 50) configured to implement an application layer messaging protocol that uses hop-by-hop routing, the network element comprising a memory (36, 46, 56) in which a routing table is stored, the routing table including one or more table entries, each table entry associating a hop supported by the network element with a message destination (20, 50) potentially reachable via that hop, wherein i) the supported hop has one of a link and a route to a peer of the network element and ii) potentially reachable via that next hop means that the network element has no positive knowledge about a link state between that hop and the message destination, and wherein the routing table comprises table entries under the assumption that the message destination can be reached via each of the next hops of the network element; an interface (32, 42, 52) configured to receive topological information indicative of a local logical topography of a particular one of the hops in the routing table, wherein the local logical topography comprises other network elements directly reachable by the particular one the hops and the links to those network elements; and at least one processor (34, 44, 54) having access to the memory, the processor being configured to modify the routing table based on the received topological information, wherein, the processor is further configured to modify the routing table by deleting a table entry for the particular hop if the received topology information indicates that the particular hop has no direct link to the message destination. a memory (36, 46, 56) in which a routing table is stored, the routing table including one or more table entries, each table entry associating a hop supported by the network element with a message destination (20, 50) potentially reachable via that hop, wherein i) the supported hop has one of a link and a route to a peer of the network element and ii) potentially reachable via that next hop means that the network element has no positive knowledge about a link state between that hop and the message destination, and wherein the routing table comprises table entries under the assumption that the message destination can be reached via each of the next hops of the network element; an interface (32, 42, 52) configured to receive topological information indicative of a local logical topography of a particular one of the hops in the routing table, wherein the local logical topography comprises other network elements directly reachable by the particular one the hops and the links to those network elements; and at least one processor (34, 44, 54) having access to the memory, the processor being configured to modify the routing table based on the received topological information, wherein, the processor is further configured to modify the routing table by deleting a table entry for the particular hop if the received topology information indicates that the particular hop has no direct link to the message destination.
A flow-rate measurement device that measures a flow rate of a fluid flowing through a fluid flow channel unit, the flow-rate measurement device comprising: a tubular measurement flow channel unit that is stored in the fluid flow channel unit; a pair of sealing materials (34a, 34b) that blocks a flow of a fluid and is provided to encircle outer peripheries of the measurement flow channel unit at a first end and a second end of the measurement flow channel unit; and a measurement unit including a pair of ultrasonic transducers, wherein the measurement unit is disposed between the pair of sealing materials (34a, 34b) on the measurement flow channel unit, and the measurement flow channel unit includes a pair of openings (42a, 42b) formed on side plates (26c, 26d) of the measurement flow channel unit wherein the pair of openings (42a, 42b) are adapted so that an ultrasonic wave from the pair of ultrasonic transducers enters and exits therefrom the measurement flow channel unit, wherein the openings (42a, 42b) are not covered with a film configured to inhibit the passage of gas, and wherein the measurement flow channel unit has an inside in communication with the fluid flow channel unit, characterized in that the measurement unit is including a substrate on which a measurement circuit is mounted, and wherein the pair of ultrasonic transducers is electrically and fixedly connected to the substrate in the measurement unit. a tubular measurement flow channel unit that is stored in the fluid flow channel unit; a pair of sealing materials (34a, 34b) that blocks a flow of a fluid and is provided to encircle outer peripheries of the measurement flow channel unit at a first end and a second end of the measurement flow channel unit; and a measurement unit including a pair of ultrasonic transducers, wherein the measurement unit is disposed between the pair of sealing materials (34a, 34b) on the measurement flow channel unit, and the measurement flow channel unit includes a pair of openings (42a, 42b) formed on side plates (26c, 26d) of the measurement flow channel unit wherein the pair of openings (42a, 42b) are adapted so that an ultrasonic wave from the pair of ultrasonic transducers enters and exits therefrom the measurement flow channel unit, wherein the openings (42a, 42b) are not covered with a film configured to inhibit the passage of gas, and wherein the measurement flow channel unit has an inside in communication with the fluid flow channel unit, characterized in that the measurement unit is including a substrate on which a measurement circuit is mounted, and wherein the pair of ultrasonic transducers is electrically and fixedly connected to the substrate in the measurement unit.
An apparatus comprising means for: controlling capture of two images of an area, across which a pulse propagates, using different shutter scanning directions; converting the images into pulse-phase maps of the area; obtaining a pulse-phase difference map identifying differences between the pulse-phase maps of the area; obtaining a shutter-time difference map identifying differences between capture times of corresponding locations in the two images; and correcting the pulse-phase difference map using the shutter-time difference map to obtain a map of pulse-phase changes which have occurred over a duration of a shutter scan. controlling capture of two images of an area, across which a pulse propagates, using different shutter scanning directions; converting the images into pulse-phase maps of the area; obtaining a pulse-phase difference map identifying differences between the pulse-phase maps of the area; obtaining a shutter-time difference map identifying differences between capture times of corresponding locations in the two images; and correcting the pulse-phase difference map using the shutter-time difference map to obtain a map of pulse-phase changes which have occurred over a duration of a shutter scan.