mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a train control system for a track section with block sections (A-B,B-C,C-D,D-E), in which • a singular data transmission takes place between respectively a trackside unit with a trackside radio communication unit at the ends of the block sections (A-B,B-C,C-D,D-E) and a train-borne unit with a radio communication unit on the train-borne unit side, • at data points (e.g. 20) at the ends of the block sections (e.g. A-B) address data for the signal (e.g. C) of the respective next block section (e.g. B-C) and track data for the respective next-but-one block section (e.g. C-D), along with in each case stored data in the form of a stored complete set of telegrams characterising the possible states of the signal (e.g. C) respectively at the end of the next block section, is activated by the train-borne unit, • the train-borne unit, after respectively passing a data point (e.g. 20), sends a request to send (Sc) to the trackside radio communication unit (e.g. 22) at the end of the next block section (e.g. B-C), whereupon secure information (Jc) for the signal aspect displayed respectively at the signal (e.g. C) of this block section (e.g. B-C) is sent to the train-borne unit by the trackside radio communication unit via the unit-side radio communication unit, in order thereby to select a current telegram in the train-borne unit based on the stored data. • a singular data transmission takes place between respectively a trackside unit with a trackside radio communication unit at the ends of the block sections (A-B,B-C,C-D,D-E) and a train-borne unit with a radio communication unit on the train-borne unit side, • at data points (e.g. 20) at the ends of the block sections (e.g. A-B) address data for the signal (e.g. C) of the respective next block section (e.g. B-C) and track data for the respective next-but-one block section (e.g. C-D), along with in each case stored data in the form of a stored complete set of telegrams characterising the possible states of the signal (e.g. C) respectively at the end of the next block section, is activated by the train-borne unit, • the train-borne unit, after respectively passing a data point (e.g. 20), sends a request to send (Sc) to the trackside radio communication unit (e.g. 22) at the end of the next block section (e.g. B-C), whereupon secure information (Jc) for the signal aspect displayed respectively at the signal (e.g. C) of this block section (e.g. B-C) is sent to the train-borne unit by the trackside radio communication unit via the unit-side radio communication unit, in order thereby to select a current telegram in the train-borne unit based on the stored data.
Liquid enteral nutritional composition comprising 8 to 12 g of protein per 100 ml of the composition, said protein including micellar casein and caseinate, the composition having an energy density of at least 10 kJ/ml [2.4 kcal/ml] wherein the combined amount of micellar casein and caseinate is at least 95 weight% of the total protein, and wherein the weight ratio of micellar casein to caseinate ranges from 80:20 to 40:60.
A contactless position sensor system, comprising: a piston configured to be disposed within a housing, the housing comprising a linear protrusion that extends radially outward from an outer surface of the housing, wherein a channel is defined in the linear protrusion that is open to an interior volume of the housing and that extends along a portion of an inner surface of the housing; a magnet coupled to the piston; and a magnetic sensor positioned within the housing and within a portion of the channel, wherein the magnetic sensor is configured to detect a linear position of the magnet within the housing, wherein the magnetic sensor comprises an electronic circuit, and wherein the magnetic sensor is separated from and physically contactless with the magnet. a piston configured to be disposed within a housing, the housing comprising a linear protrusion that extends radially outward from an outer surface of the housing, wherein a channel is defined in the linear protrusion that is open to an interior volume of the housing and that extends along a portion of an inner surface of the housing; a magnet coupled to the piston; and a magnetic sensor positioned within the housing and within a portion of the channel, wherein the magnetic sensor is configured to detect a linear position of the magnet within the housing, wherein the magnetic sensor comprises an electronic circuit, and wherein the magnetic sensor is separated from and physically contactless with the magnet.
Lubricant holder for vertical conveying of lubricant by means of a crankshaft of a coolant compressor, comprising a sleeve element having a clear cross-section delimited by an inside wall, which clear cross-section extends along a longitudinal axis of the sleeve element, from an upper end to a lower end of the sleeve element, the lubricant holder furthermore comprising an inner element that has a mantle surface that extends along a longitudinal axis of the inner element, from a lower end to an upper end, wherein in an operating state of the lubricant holder - the inner element is arranged within the clear cross-section of the sleeve element with its mantle surface, at least in certain areas, - viewed in the direction from the lower end to the upper end of the sleeve element, the lower end of the mantle surface is disposed in front of its upper end, and - the inner element and the sleeve element can be rotated relative to one another about the longitudinal axis of the sleeve element and/or the longitudinal axis of the inner element, wherein the clear cross-section narrows from the lower end to the upper end of the sleeve element, at least in a holding segment intended for holding the inner element, wherein the inner element narrows in the region of the mantle surface, from the lower end to the upper end of the mantle surface, and wherein the inside wall and/or the mantle surface has/have at least one groove that runs in spiral shape, characterised in that the at least one groove has a varying angle of inclination, which preferably increases from the lower end to the upper end of the mantle surface. - the inner element is arranged within the clear cross-section of the sleeve element with its mantle surface, at least in certain areas, - viewed in the direction from the lower end to the upper end of the sleeve element, the lower end of the mantle surface is disposed in front of its upper end, and - the inner element and the sleeve element can be rotated relative to one another about the longitudinal axis of the sleeve element and/or the longitudinal axis of the inner element, wherein the clear cross-section narrows from the lower end to the upper end of the sleeve element, at least in a holding segment intended for holding the inner element, wherein the inner element narrows in the region of the mantle surface, from the lower end to the upper end of the mantle surface, and wherein the inside wall and/or the mantle surface has/have at least one groove that runs in spiral shape, characterised in that the at least one groove has a varying angle of inclination, which preferably increases from the lower end to the upper end of the mantle surface.
A method for calibration of at least one scanning system (6a/6b) of a laser sinter or laser melt facility in which by means of the at least one scanning system (6a/6b) the pencil beam of at least one beam source, in particular of a laser, is directed onto a construction field in order by means of a construction process to melt or fuse a construction material capable of sintering or melting and thus through its cooling selectively to solidify with the following calibration method steps: - generation of at least one line pattern, particularly of a scanning grid (8 a/8 b), through the at least one scanning system (6a/6b) on a surface at the level of the construction field, whereby - the line pattern(s) is (are) projected on the upper surface of the calibration plate already provided with an applied specified line pattern and the deviation of the line pattern produced by at least one scanning system (6a/6b) from the specified line pattern is recorded by a camera configured over the construction field and read into a memory; - execution of a field correction of the line pattern by calculation of correction data regarding in essence the one scanning system (6a/6b) which data contain the necessary information for correction of any distortions of the line pattern, especially of the scanning grid (8 a/8 b) and - subsequent correction of the line pattern for avoidance of imaging errors, wherein - the deviation of a detectable line pattern temporarily visible on the surface of the calibration plate and recordable with the camera over the construction field is measured and corrected so that the line pattern produced by the scanning system (6a/6b) coincides with the specified line pattern. - generation of at least one line pattern, particularly of a scanning grid (8 a/8 b), through the at least one scanning system (6a/6b) on a surface at the level of the construction field, whereby - the line pattern(s) is (are) projected on the upper surface of the calibration plate already provided with an applied specified line pattern and the deviation of the line pattern produced by at least one scanning system (6a/6b) from the specified line pattern is recorded by a camera configured over the construction field and read into a memory; - execution of a field correction of the line pattern by calculation of correction data regarding in essence the one scanning system (6a/6b) which data contain the necessary information for correction of any distortions of the line pattern, especially of the scanning grid (8 a/8 b) and - subsequent correction of the line pattern for avoidance of imaging errors, wherein - the deviation of a detectable line pattern temporarily visible on the surface of the calibration plate and recordable with the camera over the construction field is measured and corrected so that the line pattern produced by the scanning system (6a/6b) coincides with the specified line pattern.
Apparatus comprising a biological sample receiving cassette adapted for fitting to a fluidic circuit of an automated or semi-automated sample analysis instrument, the cassette including plural receiving chambers each having at least one fluidic circuit port, and an opening for receiving a biological sample holder, the apparatus further comprising a biological sample holder for holding a solid phase, sample the holder including at a proximal end, a handle and seal area suitable for being received in or around said opening, the holder further including a stem portion connected to the seal area, being narrower in width than the seal area, and a sample retainer connected to said stem at a distal end of the holder for retaining solids in or adjacent the retainer within the chamber, characterized in that said sample retainer includes a perforated wall region for allowing fluids to pass through the wall but preventing the solid phase sample from passing through the wall.
A drawer arrangement, comprising: - a drawer sidewall having a locking device, the locking device of the drawer sidewall including a locking lever pre-stressed by at least one spring, - a wall element configured to be transversely connected to the drawer sidewall, wherein the wall element, in a connected condition with the drawer sidewall, has a fastening surface facing towards the drawer sidewall and an opposing bearing surface facing away from the fastening surface, - at least one furniture fitting separate from the wall element for connecting the wall element to the drawer sidewall, wherein the at least one furniture fitting is configured to be releasably locked to the locking lever of the locking device of the drawer sidewall, characterized in that the at least one furniture fitting, in the connected condition of the wall element with the drawer sidewall, bears at least partially against the bearing surface of the wall element, so that the wall element is held on the drawer sidewall by the locking of the furniture fitting with the locking device of the drawer sidewall, wherein the drawer sidewall has a front face, wherein the fastening surface of the wall element bears at least partially against the front face of the drawer sidewall in the connected condition of the wall element with the drawer sidewall. - a drawer sidewall having a locking device, the locking device of the drawer sidewall including a locking lever pre-stressed by at least one spring, - a wall element configured to be transversely connected to the drawer sidewall, wherein the wall element, in a connected condition with the drawer sidewall, has a fastening surface facing towards the drawer sidewall and an opposing bearing surface facing away from the fastening surface, - at least one furniture fitting separate from the wall element for connecting the wall element to the drawer sidewall, wherein the at least one furniture fitting is configured to be releasably locked to the locking lever of the locking device of the drawer sidewall,
A stalked crop harvesting header for being attached to a stalked crop harvester, the stalked crop harvesting header comprising a conveyor system with a chain for conveying harvested stalked crop material, the chain being driven around two sprockets (24, 25), and a tensioning system for tensioning the chain of the conveyor system, the tensioning system comprising a spring system coupled to a first tensioning arm and arranged for applying a force on the first tensioning arm, and a second tensioning arm being rotatably connected to a fixed point on a frame of the stalked crop harvesting header, characterised in that the first tensioning arm and the second tensioning arm are rotatably connected to one another around a shaft on which one of the sprockets is mounted.
A method of making a turbine retention device disposed aft of a turbine and in the exhaust path of an engine, the method comprising: forming a bullet having a cylindrical geometry; forming a wing; coupling the wing to the bullet with a proximal portion of the wing along an axial length of the bullet; and characterised by welding a mounting bracket to a distal end of the wing. forming a bullet having a cylindrical geometry; forming a wing; coupling the wing to the bullet with a proximal portion of the wing along an axial length of the bullet; and characterised by welding a mounting bracket to a distal end of the wing.
A composition comprising an oligonucleotide, at least two copolymers with at least two of the copolymers being Poloxamer 188 and Poloxamer 407, and a medium, wherein the oligonucleotide comprises the nucleotide sequence according to SEQ ID NO: 1.
A transport device comprising: a first transport unit; a second transport unit disposed downstream of the first transport unit in a transport direction (y); a tension imparting unit provided with a tension imparting member biased toward a medium between the first transport unit and the second transport unit and configured to impart tension to the medium; and an adjustment unit configured to adjust at least one of: (i) a biasing force of the tension imparting member; and (ii) a relative speed between the tension imparting member and the medium; characterized in that the transport device further comprises a detector configured to detect the tension imparting member approaching to the medium so that a distance therebetween is less than or equal to a distance threshold value, and when the detector detects the approach, the adjustment unit adjusts a relative speed between the tension imparting member and the medium to be less than a relative speed obtained when adjustment is not performed. a first transport unit; a second transport unit disposed downstream of the first transport unit in a transport direction (y); a tension imparting unit provided with a tension imparting member biased toward a medium between the first transport unit and the second transport unit and configured to impart tension to the medium; and an adjustment unit configured to adjust at least one of: (i) a biasing force of the tension imparting member; and (ii) a relative speed between the tension imparting member and the medium; (i) a biasing force of the tension imparting member; and (ii) a relative speed between the tension imparting member and the medium; characterized in that the transport device further comprises a detector configured to detect the tension imparting member approaching to the medium so that a distance therebetween is less than or equal to a distance threshold value, and when the detector detects the approach, the adjustment unit adjusts a relative speed between the tension imparting member and the medium to be less than a relative speed obtained when adjustment is not performed.
A device for controlling a sensor, comprising a converter unit for converting an input signal into a control signal for controlling the sensor; a comparison unit for determining a difference signal that indicates the difference between the input signal and the control signal; and a control unit for controlling the input signal by means of the difference signal, wherein the control unit generates a transfer function of the difference signal by processing the difference signal and by feeding back the processed difference signal to the input signal; the transfer function of the difference signal has a zero point at an operating frequency of the sensor; and the operating frequency is different from zero.
A method for wireless communication, comprising: receiving, at a wireless device, a scheduling indicator on a first instance of a control channel; determining that a data transmission is scheduled for the wireless device based at least in part on the received scheduling indicator; identifying a first frequency band associated with the data transmission; identifying a second frequency band associated with a second instance of the control channel; identifying a third frequency band to monitor based at least in part on the first and second frequency bands and a bandwidth capability of the wireless device, wherein the third frequency band includes the first frequency band, and wherein the third frequency band comprises an associated bandwidth that is based at least in part on the bandwidth capability of the wireless device; and receiving the data transmission in the first frequency band and a portion of the second instance of the control channel in the second frequency band that overlaps with the third frequency band. receiving, at a wireless device, a scheduling indicator on a first instance of a control channel; determining that a data transmission is scheduled for the wireless device based at least in part on the received scheduling indicator; identifying a first frequency band associated with the data transmission; identifying a second frequency band associated with a second instance of the control channel; identifying a third frequency band to monitor based at least in part on the first and second frequency bands and a bandwidth capability of the wireless device, wherein the third frequency band includes the first frequency band, and wherein the third frequency band comprises an associated bandwidth that is based at least in part on the bandwidth capability of the wireless device; and receiving the data transmission in the first frequency band and a portion of the second instance of the control channel in the second frequency band that overlaps with the third frequency band.
A ventilation system for buildings, in particular for the supply and removal of air to or from a building, having a manifold that can be connected to a ventilator or like ventilation unit, which is suitable for connecting to the environment and into which at least one air duct discharges, the air duct being suitable for placement in flow connection with a room of the building, and with at least one valve associated with the air duct for regulating the throughput through the air duct, wherein the manifold is provided with one or more branch connectors respectively associated with an air duct wherein, in order to regulate the throughput through the air duct, each respective valve is formed by a butterfly valve disposed in the branch connector and disposed at the foot of the branch connector on the manifold, characterized in that the butterfly valve acts as a guide vane to limit the side stream from the at least one air duct into the manifold, wherein the butterfly valve consists of two valve regions (17a, 17b) which are disposed at an angle with respect to each other and which are pivotable together about an axis, wherein the two valve regions (17a, 17b) are connected together rigidly along the axis.
A shell-and-plate condenser comprising a stack of corrugated heat transfer plates arranged inside a tubular outer shell, wherein said outer shell comprises at least one entrance hole for leading oil-containing refrigerant into said condenser, said condenser further comprising an integrated oil separator unit arranged above said plate stack, characterised in that said oil separator unit includes at least one flow distribution chamber being connected to at least one of said entrance holes, said flow distribution chamber substantially extending in a longitudinal direction of said tubular outer shell and wherein said flow distribution chamber comprises at least one sidewall comprising a plurality of exit holes through which said oil-containing refrigerant leaves said flow distribution chamber in a direction substantially transversal to said longitudinal direction of said outer shell and flows out into a flow guide channel of said oil separator unit, wherein said oil separator unit further includes at least one outflow demister element arranged in a demister part of said flow guide channel.
An article comprising; a continuous network comprising zinc; and a continuous network of void space interpenetrating the zinc network; wherein the zinc network is a fused, monolithic structure, and wherein the article comprises metallic zinc bridges connecting metallic zinc particle cores.
Internal loader with a U-shaped vehicle frame directed in the longitudinal direction of the vehicle and having two limbs (11, 12) and a loading shaft arranged between the limbs (11, 12), which can be closed by a gate, wherein the gate - is pivotably attached to one of the limbs (11, 12) on a first outer side by means of a hinge, - on a second outer side comprises at least one centring device, which coincides with a receptacle attached to the other of the limbs (11, 12) and, when the gate is closed, aligns the gate with respect to the said other limb (11, 12) in a closed position, and wherein the limbs (11, 12) are each carried by at least one, preferably several, running wheels with a wheel suspension, characterised in that the wheel suspensions are individually or jointly height-adjustable by means of a lifting device on the limbs (11, 12) and at least one sensor device is provided which detects a position of the centring device relative to a position of the receptacle. - is pivotably attached to one of the limbs (11, 12) on a first outer side by means of a hinge, - on a second outer side comprises at least one centring device, which coincides with a receptacle attached to the other of the limbs (11, 12) and, when the gate is closed, aligns the gate with respect to the said other limb (11, 12) in a closed position,
Sized short alumina-based inorganic oxide fiber, containing at least 35 percent by weight of Al 2 O 3 based on the total weight of the sized short alumina-based inorganic oxide fiber and having an average length of less than or equal 2.54 cm, comprising, based on the total weight of the sized short alumina-based inorganic oxide fiber: from 0.1 to 15 percent by weight of a size resin comprising a polyamide, wherein the polyamide has a melting point of less than or equal to 160°C; and from 85 to 99.9 percent by weight of short alumina-based inorganic oxide fiber. from 0.1 to 15 percent by weight of a size resin comprising a polyamide, wherein the polyamide has a melting point of less than or equal to 160°C; and from 85 to 99.9 percent by weight of short alumina-based inorganic oxide fiber.