mhurhangee/ep-ind-claims huggingface dataset:
An X-ray imaging apparatus comprising: an X-ray source configured to generate and irradiate an X-ray; a photographing device equipped in the X-ray source for capturing a camera image; and a controller configured to detect a plurality of indicators from the camera image, calculate a thickness of an X-raying portion of a subject based on a distance between the plurality of indicators, and control an X-ray irradiation condition based on the thickness of the X-raying portion, wherein the photographing device comprises a three dimensional, 3D, camera which obtains a depth information, and wherein the distance between the plurality of indicators corresponds to a difference in position between the plurality of indicators in an irradiation direction of the X-ray determined based on the depth information. an X-ray source configured to generate and irradiate an X-ray; a photographing device equipped in the X-ray source for capturing a camera image; and a controller configured to detect a plurality of indicators from the camera image, calculate a thickness of an X-raying portion of a subject based on a distance between the plurality of indicators, and control an X-ray irradiation condition based on the thickness of the X-raying portion, wherein the photographing device comprises a three dimensional, 3D, camera which obtains a depth information, and wherein the distance between the plurality of indicators corresponds to a difference in position between the plurality of indicators in an irradiation direction of the X-ray determined based on the depth information.
An industrial truck with an ethernet communication device which comprises at least one first network device and a second network device connected to the latter via a data link, wherein the data link is an ethernet cable with a single twisted pair, and wherein the first network device comprises a first transceiver unit having a first echo compensation unit and the second network device comprises a second transceiver unit having a second echo compensation unit, wherein a first transmitting unit of the first transceiver unit is configured to transmit data via the data link to a second receiver of the second transceiver unit and wherein a second transmitting unit of the second transceiver unit is configured to transmit data via the data link to a first receiver of the first transceiver unit, characterized in that the first echo compensation unit comprises a first memory which is configured to store a first data signal of the data transmitted by the first transmitting unit to the second receiver for the purpose of echo compensation for longer than the duration of an echo interval, wherein the echo interval is greater than 150 ns, a data transfer rate on the data link is at least 100 Mbit/s and the ethernet cable is an unshielded cable.
Riding surface having a tread layer and a mat which is arranged between the ground and tread layer, wherein the tread layer substantially comprises sand together with additives and, at the side of the mat facing the tread layer, drip tubes for watering the tread layer are preferably embedded in grooves, characterised in that the mat is at least partially produced from a damping material, that is to say, polyurethane foam rubber and/or rubber granulate, and the tread layer is positioned directly on the mat and the drip tubes so that the required volume of the tread layer is minimised.
A method for adjusting the average particle size of a spherical catalyst support, consisting of particles of MgHal 2 -ethanol-adduct, wherein Hal is selected from the group consisting of Cl, Br and F, having a (d 90 - d 10)/d 50 value of 1.05 to 1.7 and an average particle size d 50 of 10 μm to 150 μm measured with a Malvern Mastersizer according to the method described in the experimental section of this specification, comprising the steps: a) providing a liquid which is immiscible with a MgHal 2 -ethanol-adduct; b) adding MgHal 2 and one or more surfactant(s), wherein Hal is selected from the group consisting of Cl, Br and F, to the liquid and dispersing it therein; c) adding ethanol to the dispersion obtained in step b) in an amount β [mol/mol MgHal 2], such that ν [cP]/β [mol/mol MgHal 2] is in a range of 13 to 35, to form a MgCl 2 -ethanol-adduct, and heating the obtained mixture such that the MgHal 2 -ethanol-adduct is molten, wherein ν [cP] is the viscosity of the liquid provided in step a) measured at 30°C with a NDJ-95 viscometer; d) adding the mixture obtained in step c) to the same liquid as used in step a) heated such that the MgHal 2 -ethanol-adduct is kept in the molten state, and homogenizing the obtained mixture; and e) transferring the homogenized mixture obtained in step d) into a hydrocarbon liquid cooled to a temperature in a range of -30 °C to 0 °C. a) providing a liquid which is immiscible with a MgHal 2 -ethanol-adduct; b) adding MgHal 2 and one or more surfactant(s), wherein Hal is selected from the group consisting of Cl, Br and F, to the liquid and dispersing it therein; c) adding ethanol to the dispersion obtained in step b) in an amount β [mol/mol MgHal 2], such that ν [cP]/β [mol/mol MgHal 2] is in a range of 13 to 35, to form a MgCl 2 -ethanol-adduct, and heating the obtained mixture such that the MgHal 2 -ethanol-adduct is molten, wherein ν [cP] is the viscosity of the liquid provided in step a) measured at 30°C with a NDJ-95 viscometer; d) adding the mixture obtained in step c) to the same liquid as used in step a) heated such that the MgHal 2 -ethanol-adduct is kept in the molten state, and homogenizing the obtained mixture; and e) transferring the homogenized mixture obtained in step d) into a hydrocarbon liquid cooled to a temperature in a range of -30 °C to 0 °C.
A method, comprising: determining at a communication device, before sending a random access preamble message from the communication device as part of a random access procedure for a secondary cell, whether secondary cell configuration information sent by an access node includes random access channel parameters; in the event that the secondary cell configuration information does not include random access channel parameters, using at the communication device a primary cell timing advance value for uplink transmissions from the communication device via a primary cell, and applying at the communication device said primary cell timing advance value to the secondary cell.
Method for fixing lift-out positions (X Aa, Y Aa,....) of at least two lift-out apparatuses (22a-d) which each have a plurality of lift-out elements and/or retention positions (X Ha, Y Ha,...) of at least two retention apparatuses (24a-f) which each have a plurality of retention elements for removing a workpiece part from a remaining workpiece, wherein the lift-out apparatuses (22a-d) and/or the retention apparatuses (24a-f) are movable parallel with a bearing plane of the workpiece part which is intended to be removed from the remaining workpiece, characterised by the steps of: a) determining an in particular rectangular enclosing contour which encloses the workpiece part which is intended to be removed, b) initially fixing lift-out positions (X Aa, Y Aa,....) of at least two of the lift-out apparatuses (22a-d) and/or retention positions (X Ha, Y Ha,...) of at least two of the retention apparatuses (24a-d) relative to the enclosing contour, c) fixing an active region (37, 37a) for each of the lift-out apparatuses (22a-d) at the respective fixed lift-out position (X Aa, Y Aa,....) thereof and/or for each of the retention apparatuses (24a-f) at the respective fixed retention position (X Ha, Y Ha,...) thereof, and d) fixing the lift-out positions (X Aa, Y Aa,....) of the lift-out apparatuses (22a-d) and/or the retention positions (X Ha, Y Ha,...) of the retention apparatuses (24a-d) once again based upon a partial region, which is positioned in the respective active region (37, 37a), of the workpiece part which is intended to be removed. a) determining an in particular rectangular enclosing contour which encloses the workpiece part which is intended to be removed, b) initially fixing lift-out positions (X Aa, Y Aa,....) of at least two of the lift-out apparatuses (22a-d) and/or retention positions (X Ha, Y Ha,...) of at least two of the retention apparatuses (24a-d) relative to the enclosing contour, c) fixing an active region (37, 37a) for each of the lift-out apparatuses (22a-d) at the respective fixed lift-out position (X Aa, Y Aa,....) thereof and/or for each of the retention apparatuses (24a-f) at the respective fixed retention position (X Ha, Y Ha,...) thereof, and d) fixing the lift-out positions (X Aa, Y Aa,....) of the lift-out apparatuses (22a-d) and/or the retention positions (X Ha, Y Ha,...) of the retention apparatuses (24a-d) once again based upon a partial region, which is positioned in the respective active region (37, 37a), of the workpiece part which is intended to be removed.
A method, comprising: receiving, by a system including a processor, acquired data corresponding to a subsurface geological formation, wherein the acquired data includes data corresponding to a subsurface body having a certain geometry and a subsurface region; and directly inverting, by the system, into an inversion domain at least part of the subsurface body geometry, wherein the direct inverting includes: partitioning the inversion domain into a first partitioned region, corresponding at least in part to the subsurface body, and a second partitioned region, using a level set representation to parameterize the subsurface body geometry; defining an implicit model using a level set function; generating an objective function; determining a gradient of the objective function; at an iteration, perturbing the level set boundary by evolving the level set function; and stopping the evolution of the level set function when the step length (time step) along the time dimension meets one or more predetermined conditions. receiving, by a system including a processor, acquired data corresponding to a subsurface geological formation, wherein the acquired data includes data corresponding to a subsurface body having a certain geometry and a subsurface region; and directly inverting, by the system, into an inversion domain at least part of the subsurface body geometry, wherein the direct inverting includes: partitioning the inversion domain into a first partitioned region, corresponding at least in part to the subsurface body, and a second partitioned region, using a level set representation to parameterize the subsurface body geometry; defining an implicit model using a level set function; generating an objective function; determining a gradient of the objective function; at an iteration, perturbing the level set boundary by evolving the level set function; and stopping the evolution of the level set function when the step length (time step) along the time dimension meets one or more predetermined conditions. partitioning the inversion domain into a first partitioned region, corresponding at least in part to the subsurface body, and a second partitioned region, using a level set representation to parameterize the subsurface body geometry; defining an implicit model using a level set function; generating an objective function; determining a gradient of the objective function; at an iteration, perturbing the level set boundary by evolving the level set function; and stopping the evolution of the level set function when the step length (time step) along the time dimension meets one or more predetermined conditions.
Material in the form of a semi-interpenetrating polymer network (semi-IPN) or interpenetrating polymer network with symmetrical B-A-B structure wherein: - A is a polymer network or an ionic conductor IPN in the form of a layer; - B is an electronic conductor polymer chosen from poly(3,4-ethylenedioxythiophene) (PEDOT) or poly(3,4-propylenedioxythiophene) or one of these polymers substituted with an aliphatic chain, an alkoxy group or again a polar group such as carboxylate, sulphonate, alcoholate, and is interpenetrated in the network layer of polymer (or IPN) A; and - The polymer B is present at a content of 0.5 to 2.5% by weight based on the total weight of the material. - A is a polymer network or an ionic conductor IPN in the form of a layer; - B is an electronic conductor polymer chosen from poly(3,4-ethylenedioxythiophene) (PEDOT) or poly(3,4-propylenedioxythiophene) or one of these polymers substituted with an aliphatic chain, an alkoxy group or again a polar group such as carboxylate, sulphonate, alcoholate, and is interpenetrated in the network layer of polymer (or IPN) A; and - The polymer B is present at a content of 0.5 to 2.5% by weight based on the total weight of the material.
A wall for a building, built up from a plurality of building blocks (1; 1A; 1B), arranged in layers, each building block (1; 1A; 1B) having a substantially rectangular shape, which defines six pairwise parallel outer surfaces and which is provided with a bottom (3; 3A; 3B), a rear wall (5; 5A; 5B), a front wall (7; 7A; 7B), a first sidewall (9; 9A; 9B) and a second sidewall (11; 11A; 11B), which jointly bound an internal hollow space (15, 17; 15A, 17A; 15B, 17B), which is suitable for receiving a rooting substance, wherein the front wall (7; 7A; 7B) is at least partially lower than the rear wall (5; 5A; 5B), wherein upwardly open first and second recesses (27, 29; 27A, 29A; 27B, 29B) are provided in tops of the first (9; 9A; 9B) and second (11; 11A; 11B) sidewalls, wherein the front wall (7; 7A; 7B) is provided with at least one slot extending downwardly from a top edge of the front wall and communicating with the internal hollow space (15, 17; 15A, 17A; 15B, 17B), characterized in that said first and second recesses (27, 29; 27A, 29A; 27B, 29B) are configured to receive an irrigation conduit or line therein, and at least one irrigation conduit or line is locked between a pair of successive layers of building blocks.
Method for specifying a desired point to be pointed at in a measurement space, the point being on an object, and for measuring the real position of the point thus pointed at, the method comprises the steps of: calibrating a measuring system to a three-dimensional measurement space, calibrating a pointer to the same measurement space, pointing the pointer at said desired point of said object, using the nominal coordinates of said desired point wherein said nominal coordinates are taken from a model of said object, and using a coordinate conversion of the coordinates of said model in said measurement space, and measuring the real position of the point thus pointed at, using the measuring system. calibrating a measuring system to a three-dimensional measurement space, calibrating a pointer to the same measurement space, pointing the pointer at said desired point of said object, using the nominal coordinates of said desired point
A rotating display apparatus based on dual circularly polarized bidirectional data transmission modules, comprising a base board, a motor, a main control board, and an LED light board, wherein a pair of dual circularly polarized bidirectional data transmission modules (10, 11) are arranged on the base board and the main control board, and each of the dual circularly polarized bidirectional data transmission modules (10, 11) comprises a millimeter wave modulation-demodulation transceiver, a substrate integrated waveguide 90 degree electric bridge, orthogonal half mode waveguide excitation gaps, and an orthogonal mode combined waveguide circularly polarized radiator; and the substrate integrated waveguide 90 degree electric bridge is connected to the millimeter wave modulation-demodulation transceiver, the orthogonal half mode waveguide excitation gaps are connected to the substrate integrated waveguide 90 degree electric bridge, and the orthogonal mode combined waveguide circularly polarized radiator is connected to the orthogonal half mode waveguide excitation gaps.
A compound represented by the following formula wherein R 1 and R 3 each independently represent a hydrogen atom or an alkyl group having 1 to 3 carbon atoms, R 2 represents an alkyl group having 1 to 6 carbon atoms, R 4 represents a hydrogen atom, a methyl group or an ethyl group, and a double line composed of a dotted line and a solid line represents a single bond or a double bond, for use in reduction of sensory irritation for skin or mucous membrane.
A laundry processing apparatus, comprising: a steam supply mechanism including a steam generator (420, 420A) with a wall surface (429, 432, 434) defining a chamber for generating the steam, a heater (425, 425A) configured to heat the wall surface (429, 432, 434), and a water supply mechanism configured to supply water to the wall surface (429, 432, 434) heated by the heater (425, 425A), wherein the water supply mechanism includes an inflow port to supply the water into the steam generator (420, 420A), and the heater is situated in the steam generator (420, 420A) to surround at least one of the connecting pipe and the inflow port or a facing region and extends in U-shape, wherein the steam generator (420, 420A) includes an outer chamber wall, which defines the chamber with the wall surface (429, 432, 434), and an inner chamber wall, which surrounds the inflow port and defines a flow path formed like a whorl in the chamber, the wall surface (429, 432, 434) is provided with an exhaust port from which the steam is exhausted, the flow path includes an outer path outside the inner chamber wall, the exhaust port is situated at an end of the outer path, characterized in that the heater (425, 425A) extends along the outer path, and the laundry processing apparatus further comprising a storage tub configured to store laundry, and the steam supply mechanism is configured to supply steam into the storage tub, wherein the water supply mechanism further includes, a connecting pipe connected to the steam generator (420, 420A). a steam supply mechanism including a steam generator (420, 420A) with a wall surface (429, 432, 434) defining a chamber for generating the steam, a heater (425, 425A) configured to heat the wall surface (429, 432, 434), and a water supply mechanism configured to supply water to the wall surface (429, 432, 434) heated by the heater (425, 425A), wherein the water supply mechanism includes an inflow port to supply the water into the steam generator (420, 420A), and the heater is situated in the steam generator (420, 420A) to surround at least one of the connecting pipe and the inflow port or a facing region and extends in U-shape, wherein the steam generator (420, 420A) includes an outer chamber wall, which defines the chamber with the wall surface (429, 432, 434), and an inner chamber wall, which surrounds the inflow port and defines a flow path formed like a whorl in the chamber, the wall surface (429, 432, 434) is provided with an exhaust port from which the steam is exhausted, the flow path includes an outer path outside the inner chamber wall, the exhaust port is situated at an end of the outer path, characterized in that the heater (425, 425A) extends along the outer path, and the laundry processing apparatus further comprising a storage tub configured to store laundry, and the steam supply mechanism is configured to supply steam into the storage tub, wherein the water supply mechanism further includes, a connecting pipe connected to the steam generator (420, 420A).
A method for producing aryl-, heteroaryl- or alkenyl-substituted unsaturated hydrocarbons, comprising: reacting aryl halides, heteroaryl halides or alkenyl halides with alkynes or alkenes in the presence of a palladium catalyst to obtain a crude product, characterized in that the aryl-, heteroaryl- or alkenyl-substituted unsaturated hydrocarbon is subsequently recovered from said crude product by distillation, wherein said distillation is carried out in the presence of a compound having at least one NC=S group, and wherein the compound having at least one NC=S group is selected from dithiocarbamates or thioureas. reacting aryl halides, heteroaryl halides or alkenyl halides with alkynes or alkenes in the presence of a palladium catalyst to obtain a crude product, characterized in that the aryl-, heteroaryl- or alkenyl-substituted unsaturated hydrocarbon is subsequently recovered from said crude product by distillation, wherein said distillation is carried out in the presence of a compound having at least one NC=S group, and wherein the compound having at least one NC=S group is selected from dithiocarbamates or thioureas.
Discharge lamp, particularly a low-pressure discharge lamp, having a discharge vessel and two electrodes (3, 4), arranged at least partially inside the discharge vessel, and a first coating arranged at least in certain regions on an outer side of the discharge vessel, which is designed at least as a spectral filter for the light generated in the discharge vessel, characterized in that a second coating is formed, at least in certain regions, on the first coating, which second coating is designed to be an oxidation protection layer for the first coating.
A movement device, comprising - an adapter for coupling to at least one medical instrument, wherein - the adapter comprises at least one coupling element which is movable by way of a drive, wherein the coupling element is designed such that on coupling the medical appliance, at least one region of the medical appliance can be brought into movement by way of moving the coupling element, wherein - the force transmission between the drive and the coupling element is effected in a contact-free manner and several coupling elements are provided in an adapter, wherein the at least one medical instrument is an endoscopic instrument with at least one moving part which is movable in accordance with a coupling element and wherein the medical appliance is realised as an endoscopic instrument with a coupling part for coupling to the adapter, with an instrument shank connecting to the coupling part and with an operation part attached to the end of the instrument shank which faces away from the coupling part, wherein several operation parts which are movable independently of one another are provided which are movable independently of one another by different coupling elements, and wherein one motor is provided per coupling element. - an adapter for coupling to at least one medical instrument, wherein - the adapter comprises at least one coupling element which is movable by way of a drive, wherein the coupling element is designed such that on coupling the medical appliance, at least one region of the medical appliance can be brought into movement by way of moving the coupling element, wherein - the force transmission between the drive and the coupling element is effected in a contact-free manner and several coupling elements are provided in an adapter,
Adjustable steering column for a motor vehicle, with an actuating unit, in which a steering spindle is mounted rotatably, it being possible for the actuating unit to be adjusted in the axial direction of the steering spindle with respect to a holding unit which is fixed on the vehicle body, and it being possible for the said actuating unit to be clamped fixedly by means of a clamping apparatus, with the result that the actuating unit is fixed non-displaceably with respect to the holding unit during normal operation of the motor vehicle, and with an energy absorption apparatus which is arranged between the actuating unit and the holding unit, the energy absorption apparatus having a central section, on which at least one energy absorber (9, 10) is arranged, the energy absorber (9, 10) being coupled to the actuating unit, and the central section being connected to at least one clamping section (12, 13) which can be clamped fixedly by means of the clamping apparatus, characterized in that the clamping section (12, 13) is provided with a slot (14, 15) for the passage of a clamping bolt of the clamping apparatus.