mhurhangee/ep-ind-claims huggingface dataset:
A metering apparatus to deposit a material provided by an agricultural implement (12, 14), the metering apparatus comprising: a motor drive including a drive input and a drive output; a motor including a spindle, a motor input operatively connected to the drive output, and a motor output; a metering roller operatively connected to the spindle, the metering roller configured to deliver the material; and a controller operatively connected to the drive input of the motor drive and operatively connected to the motor output of the motor, wherein the controller is configured to transmit a motor drive signal to cause the motor drive to drive the motor and to receive a motor status signal from the motor output of the motor, wherein the motor in response to the motor drive signal is configured to drive the metering roller at a variable rate to reduce a variation in mass flow rate of material being delivered, wherein the controller includes a processor and a memory, wherein the memory has a plurality of program instructions that in response to execution by the processor causes the controller to transmit a variable rotational velocity signal to the drive input of the motor drive to drive the spindle and the metering roller at a variable rotational velocity during one revolution of the spindle, characterized in that the variable rotational velocity signal has two components, comprising a non-varying amplitude portion corresponding to a targeted rotational velocity and a periodic signal portion with a frequency and a phase. a motor drive including a drive input and a drive output; a motor including a spindle, a motor input operatively connected to the drive output, and a motor output; a metering roller operatively connected to the spindle, the metering roller configured to deliver the material; and a controller operatively connected to the drive input of the motor drive and operatively connected to the motor output of the motor, wherein the controller is configured to transmit a motor drive signal to cause the motor drive to drive the motor and to receive a motor status signal from the motor output of the motor, wherein the motor in response to the motor drive signal is configured to drive the metering roller at a variable rate to reduce a variation in mass flow rate of material being delivered, wherein the controller includes a processor and a memory, wherein the memory has a plurality of program instructions that in response to execution by the processor causes the controller to transmit a variable rotational velocity signal to the drive input of the motor drive to drive the spindle and the metering roller at a variable rotational velocity during one revolution of the spindle, characterized in that the variable rotational velocity signal has two components, comprising a non-varying amplitude portion corresponding to a targeted rotational velocity and a periodic signal portion with a frequency and a phase.
A grinding roller device for a roller mill having a sleeve-like mount for securing the spindle of the grinding roller, wherein the grinding roller is rotatively mounted in axial direction of the spindle in a fixed way at the end region of the spindle, and wherein at least one clamping means is provided in the sleeve-like mount in order to secure the spindle torque proof and axial movement, characterized in that the sleeve-like mount features an inner eccentric sleeve to provide for adjustability of the spindle of the grinding roller, and in that, by means of rotating the inner eccentric sleeve, the longitudinal axis of the spindle can be varied within the sleeve-like mount and/or in that the eccentric sleeve is displaceably accommodated in the sleeve-like mount to provide axial displacement of the spindle of the grinding roller in the direction of the spindle.
A drive switch for controlling the propulsion device of a motorized industrial truck, comprising two Hall effect sensors (1, 2) that exhibit a lateral distance from one another, comprising a source of magnetic field lines that can be moved relative to the Hall effect sensors (1, 2) when actuating the drive switch so that the magnetic flux density of the Hall effect sensors (1, 2) changes, characterized in that the drive switch includes a data processing device that receives the electric signals generated by the Hall effect sensors (1, 2) and which allocates to the signals a traveling speed and traveling direction, wherein the signal of one of the Hall effect sensors is used to determine traveling speed for which the magnetic flux density is within a range in which the electric signal is a function of the magnetic flux density, wherein the data processing device utilizes the Hall voltages of the Hall effect sensors (1, 2) analogously to the controlling of the propulsion device of the industrial truck in terms of setting the target velocity, wherein the propulsion device of the industrial truck is shut down if the Hall voltages do not comply with the expected target values beyond certain error tolerances.
Lipid nanoparticle characterized by comprising at least one solid lipid at room temperature, at least one non-ionic surfactant, and epidermal growth factor, wherein the lipid nanoparticle has an encapsulation efficiency greater than 70%.
An antigen binding molecule comprising a humanized, affinity-matured antigen binding domain, wherein said antigen binding domain specifically binds membrane-bound human carcinoembryonic antigen, and wherein said antigen binding domain binds the same epitope as or is capable of competing for binding with PR1A3, and wherein said antigen binding domain comprises a heavy chain variable region comprising: a heavy chain CDR1 of SEQ ID NO:2, and a heavy chain CDR2 of SEQ ID NO: 15, and a heavy chain CDR3 of SEQ ID NO:25; and a light chain variable region comprising: a light chain CDR1 of SEQ ID NO:45, and a light chain CDR2 of SEQ ID NO:55, and a light chain CDR3 of SEQ ID NO:56. a heavy chain CDR1 of SEQ ID NO:2, and a heavy chain CDR2 of SEQ ID NO: 15, and a heavy chain CDR3 of SEQ ID NO:25; and a light chain variable region comprising: a light chain CDR1 of SEQ ID NO:45, and a light chain CDR2 of SEQ ID NO:55, and a light chain CDR3 of SEQ ID NO:56.
A method for nondestructive and noncontact detection of faults in a test piece which is moving relative to the device, comprising: exposing the test piece to a plurality of periodic alternating electromagnetic fields with a transmitter coil arrangement; detecting a periodic electrical signal with a receiver coil arrangement, such that the periodic electrical signal has a carrier oscillation where at least one of an amplitude and a phase is modulated by a fault in the test piece when the fault is detected by the receiver coil arrangement; digitizing the receiver coil signal with an A/D converter stage; producing a useful signal from the digitized receiver coil signal with a signal processing unit (17, 19, 35, 37, 52, 60, 68, 74, 76, 78, 80, 88, 90, 94); evaluating the useful signal with an evaluation unit (50, 60, 64) for detecting a fault in the test piece; characterized by, when, through monitoring a curve r shape of the digitized receiver coil signal overdriving of the A/D converter stage by the receiver coil signal is ascertained by the signal processing unit (17, 19, 35, 37, 52, 60, 68, 74, 76, 78, 80, 88, 90, 94), and a part of the receiver coil signal being truncated with the A/D converter stage, reconstructing the receiver coil signal with a mathematical approximation of the digitized receiver coil signal.
A method of producing a Ni based alloy having an oxide film comprising chromium oxide on its surface, characterized by subjecting the alloy to a heat treatment in an atmosphere (a) consisting of carbon dioxide gas and optionally up to 5 vol.% of one or more oxidizing gases or (b) consisting of 0.0001 vol.% or more carbon dioxide gas, 99.9999 vol.% or less of one or more non-oxidizing gases and optionally up to 5 vol.% of one or more oxidizing gases, wherein the Ni based alloy consists of, by mass %, C:0.15% or less, Si:1.00% or less, Mn:2.0% or less, P:0.030% or less, S:0.030% or less, Cr:10.0 to 40.0%, Fe:15.0% or less, Ti:0.5% or less, Cu:0.50% or less, Al:2.00% or less, and optionally one or more of Nb, Ta and Mo the balance being Ni and impurities and wherein the heat treatment is carried out at from 1000 to 1200°C for from 10 seconds to 60 minutes.
A fruit harvesting tool comprising: a container having a circumferential wall disposed about a central axis (AA') and having a closed bottom end and a top end defining a perimeter with the circumferential wall, a top portion of the container comprising the top end and at least a portion of the circumferential wall adjacent to the top end being adapted to define an arcuate opening extending partway along the perimeter; a first handle member connected to the container and disposed parallel to the central axis (AA'); and characterized in that: an adapter for a second handle member protrudes from an outer surface of the closed bottom end of the container and the adapter is parallel to the central axis (AA'). a container having a circumferential wall disposed about a central axis (AA') and having a closed bottom end and a top end defining a perimeter with the circumferential wall, a top portion of the container comprising the top end and at least a portion of the circumferential wall adjacent to the top end being adapted to define an arcuate opening extending partway along the perimeter; a first handle member connected to the container and disposed parallel to the central axis (AA'); and characterized in that: an adapter for a second handle member protrudes from an outer surface of the closed bottom end of the container and the adapter is parallel to the central axis (AA').
Electric component comprising: - a support substrate comprising at least one polymer layer, - a first chip comprising a connection structure on its underside and comprising a metallic switching structure on its underside, wherein - the first chip is arranged on the support substrate, - the connection structure rests on the polymer layer or protrudes into the polymer layer without penetrating through it, - the switching structure penetrates through the polymer layer, - a gap between the first chip and the support substrate, wherein sensitive structures are arranged on the underside of the first chip without touching the support substrate, characterized in that - a second chip, which is arranged next to and electrically contacted with the first chip on the support substrate. - a support substrate comprising at least one polymer layer, - a first chip comprising a connection structure on its underside and comprising a metallic switching structure on its underside, wherein - the first chip is arranged on the support substrate, - the connection structure rests on the polymer layer or protrudes into the polymer layer without penetrating through it, - the switching structure penetrates through the polymer layer, - a gap between the first chip and the support substrate, wherein sensitive structures are arranged on the underside of the first chip without touching the support substrate, characterized in that - a second chip, which is arranged next to and electrically contacted with the first chip on the support substrate.
A curable composition, comprising: (a) at least one cyanoacrylate monomer selected from compounds of formula wherein R 1 is a divalent linking group comprising 1 to 10 carbon atoms, and A represents an C 5 -C 50 aryl residue or a C 2 -C 50 heteroaryl residue; and (b) at least one (co)polymer. (a) at least one cyanoacrylate monomer selected from compounds of formula wherein R 1 is a divalent linking group comprising 1 to 10 carbon atoms, and A represents an C 5 -C 50 aryl residue or a C 2 -C 50 heteroaryl residue; and (b) at least one (co)polymer.
An axle assembly comprising: an electric motor module having a rotor that is rotatable about a first axis; a drive pinion that extends through the rotor and is rotatable about the first axis; a rotor coupling that is received inside and engages the rotor and is fixedly positioned with respect to the rotor; a gear reduction module (28, 28') that operatively connects the rotor coupling to the drive pinion; and a first rotor bearing assembly that rotatably supports the rotor and the rotor coupling, wherein the first rotor bearing assembly extends from the drive pinion to the rotor coupling. an electric motor module having a rotor that is rotatable about a first axis; a drive pinion that extends through the rotor and is rotatable about the first axis; a rotor coupling that is received inside and engages the rotor and is fixedly positioned with respect to the rotor; a gear reduction module (28, 28') that operatively connects the rotor coupling to the drive pinion; and a first rotor bearing assembly that rotatably supports the rotor and the rotor coupling, wherein the first rotor bearing assembly extends from the drive pinion to the rotor coupling.
A respiratory therapy apparatus comprising a housing having a hose port extending from a front wall of the housing and defining a pneumatic passage through the front wall, a tag reader located in the housing and having a first antenna situated adjacent an inner surface of the front wall and surrounding the hose port, a filter housing sized to couple to the hose port, the filter housing having a filter receiving space positioned between a filter inlet and a filter outlet, a filter passage extending though the filter housing between the filter inlet and the filter outlet, a filter located in the filter receiving space, a second antenna coupled to the filter housing and surrounding the filter passage, and an identification chip carried by the filter housing and coupled to the second antenna, wherein the tag reader is configured to read the ID chip via wireless signals between the first antenna and the second antenna to confirm the filter housing is an authorized filter housing for use with the respiratory therapy apparatus. a housing having a hose port extending from a front wall of the housing and defining a pneumatic passage through the front wall, a tag reader located in the housing and having a first antenna situated adjacent an inner surface of the front wall and surrounding the hose port, a filter housing sized to couple to the hose port, the filter housing having a filter receiving space positioned between a filter inlet and a filter outlet, a filter passage extending though the filter housing between the filter inlet and the filter outlet, a filter located in the filter receiving space, a second antenna coupled to the filter housing and surrounding the filter passage, and an identification chip carried by the filter housing and coupled to the second antenna, wherein the tag reader is configured to read the ID chip via wireless signals between the first antenna and the second antenna to confirm the filter housing is an authorized filter housing for use with the respiratory therapy apparatus.
A tabbed sealing member (20, 50, 60) for sealing to a rim surrounding a container opening, the sealing member (20, 50, 60) comprising: a multi-layer laminate including an upper laminate portion partially bonded to a lower laminate portion forming a gripping tab defined wholly within a perimeter of the sealing member (20, 50, 60), the gripping tab for removing the sealing member (20, 50, 60) from the container opening; the lower laminate portion positioned below the gripping tab and including at least a heat seal layer for bonding to the container rim, and a membrane layer that is an induction heating layer; and a lacquer material on a portion of a lower surface of the tab and/or on a portion of an upper surface of the lower laminate, characterized in that the lacquer material has a matte finish. a multi-layer laminate including an upper laminate portion partially bonded to a lower laminate portion forming a gripping tab defined wholly within a perimeter of the sealing member (20, 50, 60), the gripping tab for removing the sealing member (20, 50, 60) from the container opening; the lower laminate portion positioned below the gripping tab and including at least a heat seal layer for bonding to the container rim, and a membrane layer that is an induction heating layer; and a lacquer material on a portion of a lower surface of the tab and/or on a portion of an upper surface of the lower laminate, characterized in that the lacquer material has a matte finish.
An inductive sensing device for sensing electromagnetic signals emitted from a medium in response to propagation into the medium of electromagnetic excitation signals, comprising: a loop antenna for inductively coupling with said electromagnetic signals emitted from the medium; and a blocking shield arranged to intercept electromagnetic signals propagating to or from the antenna, the shield comprising an electrically conductive body for blocking electrical components of incident signals, and wherein the body delimits at least one non-conductive gap for inhibiting induction of eddy currents within the body, wherein a loop of the antenna is broken by an opening, the opening being bridged by a capacitor, such that the capacitor divides the loop of the antenna into two wings parts, the wing parts extending to either side of the capacitor, and wherein the device comprises a signal processing means, the means being electrically coupled to the antenna via only a single point of the antenna, located to one side of the opening. a loop antenna for inductively coupling with said electromagnetic signals emitted from the medium; and a blocking shield arranged to intercept electromagnetic signals propagating to or from the antenna, the shield comprising an electrically conductive body for blocking electrical components of incident signals, and wherein the body delimits at least one non-conductive gap for inhibiting induction of eddy currents within the body, wherein a loop of the antenna is broken by an opening, the opening being bridged by a capacitor, such that the capacitor divides the loop of the antenna into two wings parts, the wing parts extending to either side of the capacitor, and wherein the device comprises a signal processing means, the means being electrically coupled to the antenna via only a single point of the antenna, located to one side of the opening.
A method of plasma surface modification of a solid object comprising: - creating plasma by at least one plasma source, and - application of the plasma to at least a part of a surface of the solid object, characterized in that the method further comprises: - generating ultrasonic high intensity and high power acoustic waves by at least one ultrasonic high intensity and high power gas-jet acoustic wave generator, where said ultrasonic high intensity and high power acoustic waves are directed to propagate towards said surface of the object so that a laminar boundary layer of a gas or a mixture of gases in contact with said solid object is removed or minimized for at least a part of said surface, and where a sound pressure level of said generated ultrasonic high intensity and high power acoustic waves is at least substantially 140 dB and where an acoustic power of said generated ultrasonic high intensity and high power acoustic waves is at least substantially 100 W. - creating plasma by at least one plasma source, and - application of the plasma to at least a part of a surface of the solid object, - generating ultrasonic high intensity and high power acoustic waves by at least one ultrasonic high intensity and high power gas-jet acoustic wave generator, where said ultrasonic high intensity and high power acoustic waves are directed to propagate towards said surface of the object so that a laminar boundary layer of a gas or a mixture of gases in contact with said solid object is removed or minimized for at least a part of said surface, and where a sound pressure level of said generated ultrasonic high intensity and high power acoustic waves is at least substantially 140 dB and where an acoustic power of said generated ultrasonic high intensity and high power acoustic waves is at least substantially 100 W.
An oil-in-water analyzer comprising an electronic equipment enclosure, the enclosure having a rectangular front end, a rectangular rear end, and a body extending between the front end and the rear end, characterized in that the body is provided with at least one expandable folded section, said at least one expandable folded section being arranged to expand in response to increased pressure within the enclosure thereby increasing the volume defined by the enclosure, wherein said at least one folded section comprises a recessed annular channel running around the entire periphery of the body.
An apparatus for balancing voltages between battery racks (11,12..N) the apparatus comprising: a voltage measuring unit configured to measure a voltage of a plurality of battery racks; a voltage collecting unit configured to collect the measured voltage of the plurality of battery racks; and a control unit configured to control voltage balancing to be performed between two battery racks (11,12..N) among the plurality of battery racks based on the collected voltage of the plurality of battery racks, and control the voltage balancing to be repeatedly performed between the battery racks, on which the voltage balancing is performed, and the battery rack, on which the voltage balancing is not performed, characterized that the control unit selects a battery rack (11,12..N) having the lowest voltage and a battery rack having the second lowest voltage from among the plurality of battery racks, discharges the battery rack having the second lowest voltage and charges the battery rack having the lowest voltage by using a discharged current to control the voltage balancing to be performed between the battery rack having the lowest voltage and the battery rack having the second lowest voltage, and selects a battery rack having the highest voltage and a battery rack having the second highest voltage from among the plurality of battery racks, discharges the battery rack having the highest voltage and charges the battery rack having the second highest voltage by using a discharged current to control the voltage balancing to be performed between the battery rack having the highest voltage and the battery rack having the second highest voltage. a voltage measuring unit configured to measure a voltage of a plurality of battery racks; a voltage collecting unit configured to collect the measured voltage of the plurality of battery racks; and a control unit configured to control voltage balancing to be performed between two battery racks (11,12..N) among the plurality of battery racks based on the collected voltage of the plurality of battery racks, and control the voltage balancing to be repeatedly performed between the battery racks, on which the voltage balancing is performed, and the battery rack, on which the voltage balancing is not performed,
An optical fibre comprising: - an optical waveguide comprising a glass core surrounded by a glass cladding; - a coating surrounding said optical waveguide comprising a cured polymer material comprising a polyester obtained by polymerization of a monomer selected from an acid, a triglyceride, or a mixture of triglycerides having a C 16 -C 24 aliphatic chain comprising at least two conjugated double bonds. - an optical waveguide comprising a glass core surrounded by a glass cladding; - a coating surrounding said optical waveguide comprising a cured polymer material comprising a polyester obtained by polymerization of a monomer selected from an acid, a triglyceride, or a mixture of triglycerides having a C 16 -C 24 aliphatic chain comprising at least two conjugated double bonds.
Use of a composition for the cultivation of biological cells, comprising the following parameters: Collagen [wt. -%]: approx. 30 to 80, Amide nitrogen [wt. -%]: approx. 0 to 0.6, Polyol [wt. -%]: approx. 0 to 50, Fat [wt. -%]: approx. 0 to 20, Ash [wt. -%]: approx. 0 to 10, Water [wt. -%]: approx. 5 to 40, pH Value: approx. 3 to 10, Weight per unit area [g/m 2]: approx. 10 to 100, Tensile strength [N/mm 2]: approx. 0.5 to 100