mhurhangee/ep-ind-claims huggingface dataset:
Method for removing the core from a vegetable head with a core, such as an adult head of lettuce, according to which - there is determined visually substantially the axis (Z-Z) of the core on a vegetable head which is orientated so that the base thereof with the start of the core (TGi) is turned upwards, - the head of the vegetable is cut in an upturned position into portions (T1-T3) via cutting planes (P1-P2) which are at least substantially perpendicular to the axis (Z-Z) which is located in this manner, and - the portions (T1-T3) are transferred one by one for their detection in the upturned position, - there is detected by image analysis of the portions (T1-T3) in the upturned position the existence of a portion piece in each portion and the position (x1, y1) of this core in a system of coordinates associated with this portion, - each portion (T1-T3) thus detected is transferred, in a state associated with the system of coordinates thereof in the axis of a coring device, - the core (TGi) of the portion is cut in an upturned position, the cored portion (TEi) is recovered, and - the cycle for detection of the presence of a core (TGi) and determination of the position of the core is repeated for the other portions (Ti) and, in the case of a core, it is cut from the portion. - there is determined visually substantially the axis (Z-Z) of the core on a vegetable head which is orientated so that the base thereof with the start of the core (TGi) is turned upwards, - the head of the vegetable is cut in an upturned position into portions (T1-T3) via cutting planes (P1-P2) which are at least substantially perpendicular to the axis (Z-Z) which is located in this manner, and - the portions (T1-T3) are transferred one by one for their detection in the upturned position, - there is detected by image analysis of the portions (T1-T3) in the upturned position the existence of a portion piece in each portion and the position (x1, y1) of this core in a system of coordinates associated with this portion, - each portion (T1-T3) thus detected is transferred, in a state associated with the system of coordinates thereof in the axis of a coring device, - the core (TGi) of the portion is cut in an upturned position, the cored portion (TEi) is recovered, and - the cycle for detection of the presence of a core (TGi) and determination of the position of the core is repeated for the other portions (Ti) and, in the case of a core, it is cut from the portion.
An operating device for a mobile machine, wherein the operating device comprises a pivotable handle and a detection mechanism coupled to the pivotable handle, the detection mechanism comprising a component that is rotated about a rotation axis upon pivoting the handle, wherein the operating device further comprises a rotary sensor, wherein the rotary sensor is a rotation angle sensor configured to detect an angle of rotation of the component, wherein the rotary sensor comprises: - a magnet arrangement configured to generate a magnetic field, wherein the magnet arrangement comprises at least four distinct and spatially separate permanent magnets, wherein the at least four permanent magnets are arranged circumferentially about the rotation axis extending in an axial direction, wherein each permanent magnet has a direction of magnetization that is substantially parallel to the axial direction, and wherein at an axial end face of the magnet arrangement north and south poles of the permanent magnets alternate in circumferential direction so that in circumferential direction neighboring permanent magnets have an opposite direction of magnetization; and - at least one magnetic field sensor configured and arranged to detect a rotation of the magnetic field generated by the magnet arrangement upon rotation of the magnet arrangement, wherein the magnet arrangement of the rotary sensor is non-rotatably mounted to the component of the operating device to detect a rotation of the component about the rotation axis. - a magnet arrangement configured to generate a magnetic field, wherein the magnet arrangement comprises at least four distinct and spatially separate permanent magnets, wherein the at least four permanent magnets are arranged circumferentially about the rotation axis extending in an axial direction, wherein each permanent magnet has a direction of magnetization that is substantially parallel to the axial direction, and wherein at an axial end face of the magnet arrangement north and south poles of the permanent magnets alternate in circumferential direction so that in circumferential direction neighboring permanent magnets have an opposite direction of magnetization; and - at least one magnetic field sensor configured and arranged to detect a rotation of the magnetic field generated by the magnet arrangement upon rotation of the magnet arrangement,
A compressor section for use in a gas turbine engine comprising: a plurality of compressor stages, each of said compressor stages provided with a rotor hub (100, 102), and each said rotor hub (100, 102) mounting a plurality of compressor blades (97; 99); a rotor drum extending between said adjacent rotor hubs (100, 102); a plurality of stator vanes having a radially outer ring and a radially inner ring, with a plurality of vanes extending between said outer and inner rings (106, 110), and an inner surface of said inner ring being spaced by a gap from an outer surface of said rotor drum; and said outer surface of said rotor drum being provided with a plurality of blades having a general airfoil shape to resist leakage across said gap, characterized in that: said inner surface of said inner ring has a small bump axially aligned with a portion of said plurality of blades, wherein said drum has a portion which is generally flat, and spaced by a constant distance from what will be a center of rotation of said rotor hubs (100, 102), and said blades being on said flat portion, and wherein said drum has frustoconical portions (132, 134) positioned upstream and downstream of said flat portion with a larger diameter portion of each frustoconical portion (132, 134) being spaced downstream of a smaller diameter portion. a plurality of compressor stages, each of said compressor stages provided with a rotor hub (100, 102), and each said rotor hub (100, 102) mounting a plurality of compressor blades (97; 99); a rotor drum extending between said adjacent rotor hubs (100, 102); a plurality of stator vanes having a radially outer ring and a radially inner ring, with a plurality of vanes extending between said outer and inner rings (106, 110), and an inner surface of said inner ring being spaced by a gap from an outer surface of said rotor drum; and said outer surface of said rotor drum being provided with a plurality of blades having a general airfoil shape to resist leakage across said gap, said inner surface of said inner ring has a small bump axially aligned with a portion of said plurality of blades, wherein said drum has a portion which is generally flat, and spaced by a constant distance from what will be a center of rotation of said rotor hubs (100, 102), and said blades being on said flat portion, and wherein said drum has frustoconical portions (132, 134) positioned upstream and downstream of said flat portion with a larger diameter portion of each frustoconical portion (132, 134) being spaced downstream of a smaller diameter portion.
A differentiation-inducing method for producing sympathetic or parasympathetic neurons from neural crest cells, the method comprising the steps of: (a) culturing the neural crest cells in the presence of a combination of a BMP signaling pathway activator, an SHH signaling pathway inhibitor, and a Wnt signaling pathway inhibitor; and (b) after the step (a), culturing the neural crest cells in the presence of a combination of a cAMP production promoter, a BDNF signaling pathway activator, a GDNF signaling pathway activator, an NGF signaling pathway activator, an NT-3 signaling pathway activator, and ascorbic acid; wherein the neural crest cells are derived from pluripotent stem cells; wherein the BMP signaling pathway activator is selected from the group consisting of BMP4, BMP2/4, BMP2, and BMP7; the SHH signaling pathway inhibitor is selected from the group consisting of SANT, JK184, and Jervine; and the Wnt signaling pathway inhibitor is selected from the group consisting of IWR, XAV939, and IWP; and wherein the cAMP production promoter is selected from the group consisting of Forskolin, L-858051, and a cAMP analog DB-cAMP; the BDNF signaling pathway activator is BDNF; the GDNF signaling pathway activator is GDNF; the NGF signaling pathway activator is NGF-β; and the NT-3 signaling pathway activator is Neurotrophin-3. (a) culturing the neural crest cells in the presence of a combination of a BMP signaling pathway activator, an SHH signaling pathway inhibitor, and a Wnt signaling pathway inhibitor; and (b) after the step (a), culturing the neural crest cells in the presence of a combination of a cAMP production promoter, a BDNF signaling pathway activator, a GDNF signaling pathway activator, an NGF signaling pathway activator, an NT-3 signaling pathway activator, and ascorbic acid;
Method for operating a railway safety system having at least one trackside device while taking into account a measured velocity value (vs) recorded when the rail vehicle drives into the switch-on section of the railway safety system, wherein the measured velocity value (vs) measured when the rail vehicle drives into the switch-on section is used as the basis for checking whether a correction time for forwarding a signal from the one trackside device to an associated railway safety system is to be set according to the measured velocity value (vs), characterised in that thereafter a set correction time is checked to determine whether the set correction time should remain effective as a function of at least one further influencing variable (az, aa) of the rail vehicle that determines the travel time.
A transmission arrangement for coupling an amplifier (105, 205, 305, 405, 605, 705) to a transmission medium, an input node (210, 310-1, 310-2) of the amplifier couplable to a transmitter, an output node (220, 320-1, 320-2) of the amplifier couplable to a terminal of the transmission medium, the transmission arrangement comprising: a first branch (212, 312) coupled between the input node (210, 310-1, 310-2) of the amplifier and an intermediate node (230, 330-1, 330-2) couplable to a receiver; and a second branch (222, 322) coupled between the output node (220, 320-1, 320-2) of the amplifier and the intermediate node (230, 330-1, 330-2), wherein the first branch (212, 312) comprises a first capacitive element (202, 302-1, 302-2); the second branch (222, 322) comprises a second capacitive element (203, 303-1, 303-2); and at least one of the first and second branches further comprises a phase matching circuit (201, 301, 401) coupled in series with the respective capacitive element. a first branch (212, 312) coupled between the input node (210, 310-1, 310-2) of the amplifier and an intermediate node (230, 330-1, 330-2) couplable to a receiver; and a second branch (222, 322) coupled between the output node (220, 320-1, 320-2) of the amplifier and the intermediate node (230, 330-1, 330-2), wherein the first branch (212, 312) comprises a first capacitive element (202, 302-1, 302-2); the second branch (222, 322) comprises a second capacitive element (203, 303-1, 303-2); and at least one of the first and second branches further comprises a phase matching circuit (201, 301, 401) coupled in series with the respective capacitive element.
A wedge connector assembly comprising: a spring member having a generally C-shaped body having an inner surface; and a wedge member having a top, a bottom, opposed sides (110, 112) tapered between a leading end and a trailing end and a notch extending from one said end along the bottom, the notch having an open face at said one end and a base wall generally opposed to said open face, characterized in that the wedge member notch extends from said leading end and has said open face at said leading end and wherein the wedge member is configured to be mated to a first mated depth when the notch is in a first orientation with respect to the spring member and wherein the wedge member is configured to be mated to a second mated depth when the notch is in a second orientation with respect to the spring member. a spring member having a generally C-shaped body having an inner surface; and a wedge member having a top, a bottom, opposed sides (110, 112) tapered between a leading end and a trailing end and a notch extending from one said end along the bottom, the notch having an open face at said one end and a base wall generally opposed to said open face, characterized in that the wedge member notch extends from said leading end and has said open face at said leading end and wherein the wedge member is configured to be mated to a first mated depth when the notch is in a first orientation with respect to the spring member and wherein the wedge member is configured to be mated to a second mated depth when the notch is in a second orientation with respect to the spring member.
Dishwasher product dispenser kit, comprising a container for the products to be dispensed equipped with a dispensing portion, a closing member of said dispensing portion of the container, made of water dispersible material in order to enable the same dispensing portion to be opened during a washing step, said dispensing portion extending from a first surface of said container which is opposite to a second base surface, a lateral surface of said container extending between said first surface and said second base surface, said container forming on the outer surface at least one cavity having a longitudinal extension to said container, adapted to couple with a corresponding prong of a rack of a dishwasher to enable the engagement of the same container in said rack in a position adapted to dispense said product during the washing step, said longitudinal cavity defining an open channel at an end section for the engagement on a corresponding prong of the rack and open laterally, at least partially, on said outer lateral surface of said container, characterized by comprising a covering element (20, 200) applied on a portion of the outer surface of said container so as to close laterally, at least partially, said channel and enable secure engagement on said prong of said rack, said covering element (20, 200) being applied adherently, at least partially, on said lateral surface of said container and in that said at least one cavity has a longitudinal extent which is substantially parallel to the axis of said dispensing portion in order to facilitate the dispensing of said product.
A leak detection and mitigation system, comprising: a gas flow path extending from a gas outlet of a fuel degassing device; an orifice in the gas flow path; and a sensor in the gas flow path upstream from the orifice, wherein the sensor is configured to detect a fuel leak into the gas flow path, characterized in that the system comprises a leak protection valve positioned in the gas flow path, wherein the leak protection valve includes a valve housing, a valve piston within the valve housing orientated to slide with respect to the valve housing and a biasing member operatively connected to the valve piston to bias the valve piston in a rest position, and the sensor is a position sensor operatively connected to the leak protection valve to detect a fuel leak in the gas flow path based on a position of the valve piston of the leak protection valve. a gas flow path extending from a gas outlet of a fuel degassing device; an orifice in the gas flow path; and a sensor in the gas flow path upstream from the orifice, wherein the sensor is configured to detect a fuel leak into the gas flow path, characterized in that the system comprises a leak protection valve positioned in the gas flow path, wherein the leak protection valve includes a valve housing, a valve piston within the valve housing orientated to slide with respect to the valve housing and a biasing member operatively connected to the valve piston to bias the valve piston in a rest position, and the sensor is a position sensor operatively connected to the leak protection valve to detect a fuel leak in the gas flow path based on a position of the valve piston of the leak protection valve.
A method for receiving a Wake-Up Receiver, WUR, discovery frame in a wireless LAN system, comprising: receiving, by a station, STA (100-1; 105-; 105-2; 150-1; 150-2; 150-3; 155-4; 155-5), a WUR discovery element from an access point, AP (125; 130; 230); and receiving, by the STA (100-1; 105-; 105-2; 150-1; 150-2; 150-3; 155-4; 155-5), the WUR discovery frame from a neighbor AP based on the WUR discovery element, wherein the WUR discovery element includes AP list information, wherein the AP list information includes a parameter of the neighbor AP, wherein the parameter of the neighbor AP includes an identifier of the neighbor AP and information on a WUR discovery period, and wherein the WUR discovery frame is received during the WUR discovery period. receiving, by a station, STA (100-1; 105-; 105-2; 150-1; 150-2; 150-3; 155-4; 155-5), a WUR discovery element from an access point, AP (125; 130; 230); and receiving, by the STA (100-1; 105-; 105-2; 150-1; 150-2; 150-3; 155-4; 155-5), the WUR discovery frame from a neighbor AP based on the WUR discovery element, wherein the WUR discovery element includes AP list information, wherein the AP list information includes a parameter of the neighbor AP, wherein the parameter of the neighbor AP includes an identifier of the neighbor AP and information on a WUR discovery period, and wherein the WUR discovery frame is received during the WUR discovery period.
A pharmaceutical composition for use in the treatment of a wound infected with S. aureus to reduce scarring comprising digestive enzymes comprising protease, amylase, and lipase.
A method for predicting the increase in frictional resistance of a rough surface having a variation in roughness wavelength, and being in contact with a fluid flowing at varied velocities, the method comprising evaluating the total projected area A of all prominent peaks standing out above the viscous sublayer thickness per unit area, hereinafter written as the "prominent peak projected area A", and calculating the friction increase ratio FIR (%) using Equation below or the frictional resistance increase Δτ using Equation below: FIR % = C × A Δ ⁢ τ = C r 1 2 ρ AV 2 whereby in Equation, the coefficient C is a constant dependent on the prominent peak projected area A and is determined by performing a frictional resistance test beforehand in which the frictional resistance is measured with respect to a plurality of rough surfaces differing in the degree of roughness while changing the flow velocity V, and the friction increase ratios FIR (%) of the rough surfaces are calculated wherein the friction increase ratios FIR (%) are percentages of the difference τ r - τ 0 between the frictional resistance τ r of the rough surface and the frictional resistance τ 0 of a smooth surface, divided by τ 0, and in Equation, the coefficient C r is a constant dependent on the fluid density p, the prominent peak projected area A and the flow velocity V and is determined from the relation of Equation using values of frictional resistance increase Δτ obtained beforehand by a frictional resistance test in which the frictional resistance is measured with respect to a plurality of rough surfaces differing in the degree of roughness while changing the flow velocity V, wherein the values of frictional resistance increase Δτ are the differences τ r - τ 0 between the frictional resistance τ r of the rough surface and the frictional resistance τ 0 of a smooth surface.
A method for performing an X-ray diffraction measurement with an X-ray diffractometer that has an X-ray beam directed at a sample, that detects X-ray energy diffracted by the sample with a two-dimensional X-ray detector and that stores a representation of the detected X-ray energy as a spatial intensity distribution relative to a detection area comprising a cylindrical segment, the method comprising: acquisition of a series of images taken at sequential positions along the scanning range by moving the detector in an angular direction along a scanning path about a location of the sample while detecting the diffracted X-ray energy; and when the detector is located at an extreme of the scanning path, maintaining the position of the detector while detecting the X-ray energy, and progressively changing, along said angular direction, a portion of the detector area that is used to contribute to said representation of the detected X-ray energy. acquisition of a series of images taken at sequential positions along the scanning range by moving the detector in an angular direction along a scanning path about a location of the sample while detecting the diffracted X-ray energy; and when the detector is located at an extreme of the scanning path, maintaining the position of the detector while detecting the X-ray energy, and progressively changing, along said angular direction, a portion of the detector area that is used to contribute to said representation of the detected X-ray energy.
An on-machine-seamable industrial fabric comprising: a plurality of joining members; and a plurality of preformed rings oriented in a machine direction, each ring enclosing at least two of the joining members, characterized by said joining members extending at oblique angles relative to said machine direction. a plurality of joining members; and a plurality of preformed rings oriented in a machine direction, each ring enclosing at least two of the joining members, characterized by said joining members extending at oblique angles relative to said machine direction.
A power tool comprising: a housing including a motor case and a handle extending from the motor case; an electric motor housed within the motor case and rotatably driving a motor spindle; a gear case mounted on the housing; an output spindle received at least partially within the gear case and rotatably coupled to the motor spindle, the output spindle being oriented perpendicularly to the motor spindle and together forming a plane through the housing; a fan rotatably fixed to the motor spindle to generate an airflow through the electric motor; a first air inlet formed in the housing on a first side of the plane; and a second air inlet formed in the housing on a second side of the plane opposite the first air inlet; characterised in that the first air inlet is formed in the housing adjacent the electric motor and the second air inlet formed in the housing adjacent the electric motor; wherein the first air inlet is larger than the second air inlet to allow a larger volume of air to enter the housing from the first side of the plane than from the second side of the plane. a housing including a motor case and a handle extending from the motor case; an electric motor housed within the motor case and rotatably driving a motor spindle; a gear case mounted on the housing; an output spindle received at least partially within the gear case and rotatably coupled to the motor spindle, the output spindle being oriented perpendicularly to the motor spindle and together forming a plane through the housing; a fan rotatably fixed to the motor spindle to generate an airflow through the electric motor; a first air inlet formed in the housing on a first side of the plane; and a second air inlet formed in the housing on a second side of the plane opposite the first air inlet; characterised in that the first air inlet is formed in the housing adjacent the electric motor and the second air inlet formed in the housing adjacent the electric motor; wherein the first air inlet is larger than the second air inlet to allow a larger volume of air to enter the housing from the first side of the plane than from the second side of the plane.