mhurhangee/ep-ind-claims huggingface dataset:
Elastic spring element of adjustable stiffness, comprising an (a) elastomeric damping element and (b) an elastomeric pressure element, characterised in that (i) the damping element essentially comprises an elastomer part (1, 2), which is limited at the bottom by a lower terminal plate and at the top by the pressure element, and has in the interior one or more non-elastic intermediate plates which are arranged parallel to the lower terminal plate and are separated from one another by elastomer layers and which have a cylindrical hole which is arranged in accordance with the vertical axis of the spring element and is filled by an elastomer core, and (ii) the pressure element has the shape of a pressure-stable bowl, which has in its base a cylindrical hole which is congruent with the adjacent hole of the damping element, and is filled by compressible elastomer material and a pressure piece, where the pressure piece in the non-pretensioned state of the spring element forms a part of the upper horizontal limit thereof and is surrounded at the sides and below by, or is embedded in, elastomeric compression material, which is in direct contact with the elastomer core of the damping element, so that the pressure mediated via the pressure piece is transmitted to the actual damping unit, and a change in the spring length of the damping element is thus achieved by compression of the elastomer core, depending on the pressure exerted. (a) elastomeric damping element and (b) an elastomeric pressure element, (i) the damping element essentially comprises an elastomer part (1, 2), which is limited at the bottom by a lower terminal plate and at the top by the pressure element, and has in the interior one or more non-elastic intermediate plates which are arranged parallel to the lower terminal plate and are separated from one another by elastomer layers and which have a cylindrical hole which is arranged in accordance with the vertical axis of the spring element and is filled by an elastomer core, and (ii) the pressure element has the shape of a pressure-stable bowl, which has in its base a cylindrical hole which is congruent with the adjacent hole of the damping element, and is filled by compressible elastomer material and a pressure piece, where the pressure piece in the non-pretensioned state of the spring element forms a part of the upper horizontal limit thereof and is surrounded at the sides and below by, or is embedded in, elastomeric compression material, which is in direct contact with the elastomer core of the damping element,
An isolated antibody molecule that specifically binds to the exosite 1 region of thrombin, wherein the antibody molecule comprises a VH domain comprising an HCDR1, HCDR2 and HCDR3 having the sequences of SEQ ID NOs 3, 4 and 5, respectively, and a VL domain comprising an LCDR2 and LCDR3 having the sequences of SEQ ID NOs 8 and 9, respectively, and an LCDR1 having the sequence of SEQ ID NO: 7 or an LCDR1 having the sequence of SEQ ID: 7 in which a glycosylation site is mutated out by introducing a substitution at an amino acid residue corresponding to S30 in SEQ ID NO: 6.
A purified, or non-naturally occurring, activating killer cell immunoglobulin-like receptor chimeric antigen receptor (actKIR-CAR) comprising: (i) an extra-cellular antigen binding domain derived from an antibody molecule or which comprises a non-antibody scaffold that has the ability to bind to target antigen on a cell; (ii) an actKIR transmembrane domain that can interact with the transmembrane domain of DAP12; and (iii) a cytoplasmic domain. (i) an extra-cellular antigen binding domain derived from an antibody molecule or which comprises a non-antibody scaffold that has the ability to bind to target antigen on a cell; (ii) an actKIR transmembrane domain that can interact with the transmembrane domain of DAP12; and (iii) a cytoplasmic domain.
An apparatus comprising means for performing: controlling a fronthaul traffic stream in a fronthaul network between a baseband unit (2; 321) comprising the apparatus and at least one radio unit (1; 311, 312, 313), receiving congestion information concerning congestion in the fronthaul network from a recipient of the fronthaul traffic, and reducing the traffic rate based on the received congestion information, wherein the means is further configured to perform: reducing the traffic rate when the congestion exceeds a threshold, and a plurality of radio units (1; 311, 312, 313) is connected to the baseband unit (2; 321), and the threshold is defined as a percentage of radio units (1; 311, 312, 313) signaling the congestion information to the total number of radio units (1; 311, 312, 313) connected to the baseband unit (2; 321). controlling a fronthaul traffic stream in a fronthaul network between a baseband unit (2; 321) comprising the apparatus and at least one radio unit (1; 311, 312, 313), receiving congestion information concerning congestion in the fronthaul network from a recipient of the fronthaul traffic, and reducing the traffic rate based on the received congestion information, wherein the means is further configured to perform: reducing the traffic rate when the congestion exceeds a threshold, and a plurality of radio units (1; 311, 312, 313) is connected to the baseband unit (2; 321), and the threshold is defined as a percentage of radio units (1; 311, 312, 313) signaling the congestion information to the total number of radio units (1; 311, 312, 313) connected to the baseband unit (2; 321).
A boom assembly comprising: a first boom member; a second boom member that is slidable relative to the first boom member in a first direction; a stop member attached to the first boom member, the stop member at least partially defining a receptacle that faces the second boom member when the second boom member is positioned on the first boom member; a closure member that is attachable to the first boom member in a fixed position proximate the stop member and movable away from the fixed position; and a planar wearpad that is insertable into the receptacle in the first direction when the closure member is moved away from the fixed position and the second boom member is positioned on the first boom member; wherein the stop member and the closure member inhibit lateral movement of the wearpad in a direction parallel to the plane of the wearpad, and allow movement of the wearpad in a direction transverse to the plane of the wearpad, when the wearpad is positioned in the receptacle and the closure member is positioned in the fixed position, and the second boom member inhibits movement of the wearpad in the direction transverse to the plane of the wearpad, and wherein the closure member is attachable to the first boom member in the fixed position with one or more fasteners that extend in the first direction, characterized in that the first boom member has a slot that permits movement of the one or more fasteners in a direction transverse to the first direction. a first boom member; a second boom member that is slidable relative to the first boom member in a first direction; a stop member attached to the first boom member, the stop member at least partially defining a receptacle that faces the second boom member when the second boom member is positioned on the first boom member; a closure member that is attachable to the first boom member in a fixed position proximate the stop member and movable away from the fixed position; and a planar wearpad that is insertable into the receptacle in the first direction when the closure member is moved away from the fixed position and the second boom member is positioned on the first boom member; wherein the stop member and the closure member inhibit lateral movement of the wearpad in a direction parallel to the plane of the wearpad, and allow movement of the wearpad in a direction transverse to the plane of the wearpad, when the wearpad is positioned in the receptacle and the closure member is positioned in the fixed position, and the second boom member inhibits movement of the wearpad in the direction transverse to the plane of the wearpad, and wherein the closure member is attachable to the first boom member in the fixed position with one or more fasteners that extend in the first direction, characterized in that the first boom member has a slot that permits movement of the one or more fasteners in a direction transverse to the first direction.
An earpiece, comprising: an acoustic driver; an acoustic nozzle extending from the acoustic driver toward an output aperture, the acoustic nozzle including an acoustic passage between an entrance aperture and the output aperture to conduct sound waves from the acoustic driver toward the output aperture, the acoustic passage having a proximal end adjacent the acoustic driver and a distal end toward the output aperture; a sealing structure to engage an entrance to a user's ear canal; first acoustic impedance at the proximal end of the acoustic nozzle; and second acoustic impedance at the distal end of the acoustic nozzle; wherein the first acoustic impedance is a first acoustic mesh formed of an acoustic material and the second acoustic impedance is a second acoustic mesh formed of an acoustic material; wherein the acoustic nozzle has a nozzle volume between the first acoustic impedance and the second acoustic impedance, the first acoustic impedance, second acoustic impedance, and nozzle volume being selected to control resonance in the user's ear canal when the sealing structure is engaged with the entrance to the user's ear canal; characterised in that the first acoustic mesh and/or the second acoustic mesh is curved about a line extending in a direction perpendicular from a center axis of the acoustic nozzle to form a section of a cylinder. an acoustic driver; an acoustic nozzle extending from the acoustic driver toward an output aperture, the acoustic nozzle including an acoustic passage between an entrance aperture and the output aperture to conduct sound waves from the acoustic driver toward the output aperture, the acoustic passage having a proximal end adjacent the acoustic driver and a distal end toward the output aperture; a sealing structure to engage an entrance to a user's ear canal; first acoustic impedance at the proximal end of the acoustic nozzle; and second acoustic impedance at the distal end of the acoustic nozzle; wherein the first acoustic impedance is a first acoustic mesh formed of an acoustic material and the second acoustic impedance is a second acoustic mesh formed of an acoustic material; wherein the acoustic nozzle has a nozzle volume between the first acoustic impedance and the second acoustic impedance, the first acoustic impedance, second acoustic impedance, and nozzle volume being selected to control resonance in the user's ear canal when the sealing structure is engaged with the entrance to the user's ear canal; characterised in that the first acoustic mesh and/or the second acoustic mesh is curved about a line extending in a direction perpendicular from a center axis of the acoustic nozzle to form a section of a cylinder.
Work vehicle comprising a mobile frame with a main axis and comprising a set of support arms (10,20) adjustable between a lateral operative position, in which the support arms extend laterally on either side of the main axis of the frame, and an at least partially upward oriented transport position, and wherein the support arms comprise a plurality of mutually pivotable support arm parts which support work modules (11A..11F,21A..21F), placed at a regular distance from each other in order to thereby perform work on a ground surface in the operative position, characterized in that, in the operative position, a centre of a first of the support arms is situated at a lateral distance from the main axis on a first side of the main axis and a centre of a second of the support arms is situated at a lateral distance from the main axis on a second side of the main axis, in that each of the support arms (10,20) comprise on a side of the main axis at least a first support arm part, a second support arm part and a third support arm part, wherein in the transport position the first support arm part is oriented upward, the second support arm part extends above the main axis and at least substantially parallel to a ground surface and the third support arm part is oriented at least substantially toward the ground surface at a first outer end of the support arm, in that each of the support arms (10,20) comprise a fourth support arm part and fifth support arm part on an opposite side of the main axis, wherein in the transport position the fourth support arm part is oriented obliquely upward in the direction of the main axis and the fifth support arm part is oriented obliquely over the main axis in the direction of the ground surface on an opposite outer end of the support arm, and in that the first, second and third support arm parts define an at least substantially rectangular outer periphery of the work vehicle in the transport position, and that the fourth and fifth support arm parts are situated wholly within the outer periphery in the transport position.
A motor control apparatus for a dental handpiece, the dental handpiece having a motor that rotationally drives a cutting tool, the motor control apparatus being connectable to the motor of the dental handpiece and comprising: a load torque detecting section that detects a load torque (Tr) applied to the cutting tool when the motor control apparatus is connected to the motor of the dental handpiece; a rotational speed detecting section that detects a rotational speed (Rr) of the motor when the motor control apparatus is connected to the motor of the dental handpiece; and a control section that controls the rotational speed (Rr) and a motor current (Im) of the motor when the motor control apparatus is connected to the motor of the dental handpiece, wherein the control section limits the motor current (Im) to a first limit current when the load torque (Tr) detected by the load torque detecting section exceeds a preset limit torque value, characterized in that the control section controls the motor current (Im) to be equal to or lower than a second limit current, which is lower than the first limit current, by gradually decreasing power supply to the motor when the load torque (Tr) exceeds the limit torque value and the rotational speed detecting section detects that the motor stops rotating, and stops power supply to the motor when the motor current (Im) becomes equal to or lower than the second limit current. a load torque detecting section that detects a load torque (Tr) applied to the cutting tool when the motor control apparatus is connected to the motor of the dental handpiece; a rotational speed detecting section that detects a rotational speed (Rr) of the motor when the motor control apparatus is connected to the motor of the dental handpiece; and a control section that controls the rotational speed (Rr) and a motor current (Im) of the motor when the motor control apparatus is connected to the motor of the dental handpiece, wherein the control section limits the motor current (Im) to a first limit current when the load torque (Tr) detected by the load torque detecting section exceeds a preset limit torque value, characterized in that the control section controls the motor current (Im) to be equal to or lower than a second limit current, which is lower than the first limit current, by gradually decreasing power supply to the motor when the load torque (Tr) exceeds the limit torque value and the rotational speed detecting section detects that the motor stops rotating, and stops power supply to the motor when the motor current (Im) becomes equal to or lower than the second limit current.
A vacuum pump comprising a rotor shaft which carries pump-active elements of a rotor of the vacuum pump, and at least one bearing (142, 143) at which the rotor shaft is rotatably supported, wherein a lubricant is provided for lubricating the bearing (142, 143), wherein the rotor shaft has at least one recess which is arranged outside a bearing region of the rotor shaft and which is configured to receive the lubricant, wherein the recess is formed by an inclination of an outer surface of the rotor shaft, wherein the rotor shaft has an axis of rotation which defines an axial direction, and wherein the recess is formed in that the outer surface of the rotor shaft is inclined with respect to a radial direction which extends at a right angle to the axial direction, characterized in that a distance in the axial direction between the outer surface of the rotor shaft and the bearing (142, 143) increases along the at least one recess when a spacing from the axis of rotation decreases in the radial direction. a rotor shaft which carries pump-active elements of a rotor of the vacuum pump, and at least one bearing (142, 143) at which the rotor shaft is rotatably supported, wherein a lubricant is provided for lubricating the bearing (142, 143), wherein the rotor shaft has at least one recess which is arranged outside a bearing region of the rotor shaft and which is configured to receive the lubricant, wherein the recess is formed by an inclination of an outer surface of the rotor shaft, wherein the rotor shaft has an axis of rotation which defines an axial direction, and wherein the recess is formed in that the outer surface of the rotor shaft is inclined with respect to a radial direction which extends at a right angle to the axial direction, characterized in that a distance in the axial direction between the outer surface of the rotor shaft and the bearing (142, 143) increases along the at least one recess when a spacing from the axis of rotation decreases in the radial direction.
A method of producing a ceramic honeycomb body, comprising: adding a cellulose-based binder, an aqueous-based solvent, and a heteroatom polyol agent to inorganic ceramic-forming ingredients, wherein the heteroatom polyol agent is optionally mixed with the aqueous-based solvent prior to adding to the inorganic ceramic-forming ingredients, wherein the heteroatom polyol agent is represented by X where X is at least one of S and P, and R is at least two of CH 2 CH 2 OH, CH 2 CH 2 CH 2 OH, CH 2 (CHOH)CH 3, C(CH 2 OH) 1-3, CH 2 OH, CH(CH 2 OH)CHOH, and C (CHOH) 1-4 CH 2 OH or at least one of C(CH 2 OH) 2-3, CH(CH 2 OH)CHOH, and C (CHOH) 1-4 CH 2 OH combined with at least one of CH 3 and CH 2 CH 2 CH 2 OCH 3; mixing the inorganic ceramic-forming ingredients, the binder, the solvent, and the heteroatom polyol agent to form a precursor batch; forming the precursor batch into a green honeycomb body; and firing the green honeycomb body to produce the ceramic honeycomb body. adding a cellulose-based binder, an aqueous-based solvent, and a heteroatom polyol agent to inorganic ceramic-forming ingredients, wherein the heteroatom polyol agent is optionally mixed with the aqueous-based solvent prior to adding to the inorganic ceramic-forming ingredients, wherein the heteroatom polyol agent is represented by X where X is at least one of S and P, and R is at least two of CH 2 CH 2 OH, CH 2 CH 2 CH 2 OH, CH 2 (CHOH)CH 3, C(CH 2 OH) 1-3, CH 2 OH, CH(CH 2 OH)CHOH, and C (CHOH) 1-4 CH 2 OH or at least one of C(CH 2 OH) 2-3, CH(CH 2 OH)CHOH, and C (CHOH) 1-4 CH 2 OH combined with at least one of CH 3 and CH 2 CH 2 CH 2 OCH 3; mixing the inorganic ceramic-forming ingredients, the binder, the solvent, and the heteroatom polyol agent to form a precursor batch; forming the precursor batch into a green honeycomb body; and firing the green honeycomb body to produce the ceramic honeycomb body.
A liquid cold plate heat exchanger, comprising: a base having an upper surface; a heat sink having a plurality of fins arranged on the upper surface of the base, the plurality of fins defining a top surface of the heat sink; a cap having a lower surface positioned over the upper surface of the base and the heat sink; and a spring plate positioned between the top surface of the heat sink and the lower 10 surface of the cap, wherein with the cap secured to the base, there is a gap between the top surface of the heat sink defined by the plurality of fins and the lower surface of the cap, the spring plate is arranged in the gap to exert an upward bias on the lower surface of the cap and a downward bias on the top surface of the heat sink, and characterised in that the spring plate spans across the plurality of the fins and has a thickness that closely approximates a height of the gap. a base having an upper surface; a heat sink having a plurality of fins arranged on the upper surface of the base, the plurality of fins defining a top surface of the heat sink; a cap having a lower surface positioned over the upper surface of the base and the heat sink; and a spring plate positioned between the top surface of the heat sink and the lower 10 surface of the cap, wherein with the cap secured to the base, there is a gap between the top surface of the heat sink defined by the plurality of fins and the lower surface of the cap, the spring plate is arranged in the gap to exert an upward bias on the lower surface of the cap and a downward bias on the top surface of the heat sink, and characterised in that the spring plate spans across the plurality of the fins and has a thickness that closely approximates a height of the gap.
A method for interference mitigation comprising: determining whether a frequency of an unscheduled service transmission signal is within a predefined frequency range; determining whether a power level of the unscheduled service transmission signal is less than a predefined power threshold; and in response to a determination that the frequency is within the predefined frequency range and a determination that the power level is not less than the predefined power threshold, performing one or both of the following: erasing a baseband signal associated with a scheduled service reception signal during a time period when an unscheduled service transmission is on, wherein the unscheduled service transmission signal interferes with the baseband signal; and initiating a smart channel information report, wherein initiating the smart channel information report includes reporting a data rate condition to an access node, wherein the data rate condition includes information regarding timeslots that correspond to a potential collision between a portion of the unscheduled service transmission signal and a portion of the scheduled service reception signal. determining whether a frequency of an unscheduled service transmission signal is within a predefined frequency range; determining whether a power level of the unscheduled service transmission signal is less than a predefined power threshold; and in response to a determination that the frequency is within the predefined frequency range and a determination that the power level is not less than the predefined power threshold, performing one or both of the following: erasing a baseband signal associated with a scheduled service reception signal during a time period when an unscheduled service transmission is on, wherein the unscheduled service transmission signal interferes with the baseband signal; and initiating a smart channel information report, wherein initiating the smart channel information report includes reporting a data rate condition to an access node, wherein the data rate condition includes information regarding timeslots that correspond to a potential collision between a portion of the unscheduled service transmission signal and a portion of the scheduled service reception signal. erasing a baseband signal associated with a scheduled service reception signal during a time period when an unscheduled service transmission is on, wherein the unscheduled service transmission signal interferes with the baseband signal; and initiating a smart channel information report, wherein initiating the smart channel information report includes reporting a data rate condition to an access node, wherein the data rate condition includes information regarding timeslots that correspond to a potential collision between a portion of the unscheduled service transmission signal and a portion of the scheduled service reception signal.