mhurhangee/ep-ind-claims huggingface dataset:
A drying device for one or more endoscopes, which comprises; - a drying space comprising holder means for hanging the endoscopes, - a mounting unit situated at the top of the drying space and provided with an air pressure chamber which is connected to blowing elements (7; 7-1, 7-2) which open into the drying space and which are arranged to bring about a downward airflow in the drying space, which blowing elements (7; 7-1, 7-2) comprise various types of blowing elements, namely blowing elements of the type which bring about a downward airflow along and/or under the holder means, and - close to the holder means, an air connection for the endoscope, characterised by blowing elements of a first type which bring about a downward airflow along the rear wall of the drying space, while the blowing elements of the second type bring about said downward airflow along and/or under the holder means, and in that the drying device comprises upstream of said air connection, an airflow meter which is intended for each individual endoscope, and which is used to measure a dry airflow through the interior of the endoscope. - a drying space comprising holder means for hanging the endoscopes, - a mounting unit situated at the top of the drying space and provided with an air pressure chamber which is connected to blowing elements (7; 7-1, 7-2) which open into the drying space and which are arranged to bring about a downward airflow in the drying space, which blowing elements (7; 7-1, 7-2) comprise various types of blowing elements, namely blowing elements of the type which bring about a downward airflow along and/or under the holder means, and - close to the holder means, an air connection for the endoscope, by blowing elements of a first type which bring about a downward airflow along the rear wall of the drying space, while the blowing elements of the second type bring about said downward airflow along and/or under the holder means, and in that the drying device comprises upstream of said air connection, an airflow meter which is intended for each individual endoscope, and which is used to measure a dry airflow through the interior of the endoscope.
A method controlling a motor by determining an absolute angular position, the method comprising the steps of: converting a rotor position signal to an angle with error (θ E); tracking the angle with error (θ E) to provide an angle (θ M) that retains mechanical dynamics as stationary reference frame signals; transforming the stationary reference frame signals and the angle with mechanical dynamics (θ M) to rotating reference frame signals; filtering the rotating reference frame signals; transforming the filtered rotating reference frame signals to provide filtered stationary frame signals; and taking an arctangent of the filtered stationary reference frame signals to create a corrected motor control angle(θ C). converting a rotor position signal to an angle with error (θ E); tracking the angle with error (θ E) to provide an angle (θ M) that retains mechanical dynamics as stationary reference frame signals; transforming the stationary reference frame signals and the angle with mechanical dynamics (θ M) to rotating reference frame signals; filtering the rotating reference frame signals; transforming the filtered rotating reference frame signals to provide filtered stationary frame signals; and taking an arctangent of the filtered stationary reference frame signals to create a corrected motor control angle(θ C).
A swallowing medical device (1, 2, 4, 6) configured to execute a medical operation regarding swallowing, the swallowing medical device comprising: an attachment unit (20, 40, 60) configured to be attached to a target portion of a human body for the medical operation; a control unit configured to control the medical operation; and a storage (23, 44) configured to store use information regarding a use state over time of the attachment unit (20, 40, 60), characterized in that the control unit executes a control for restricting use of the attachment unit (20, 40, 60) on the basis of a fact that the stored use information over time does not satisfy a set condition for ensuring a characteristic of the attachment unit (20, 40, 60). an attachment unit (20, 40, 60) configured to be attached to a target portion of a human body for the medical operation; a control unit configured to control the medical operation; and a storage (23, 44) configured to store use information regarding a use state over time of the attachment unit (20, 40, 60), characterized in that the control unit executes a control for restricting use of the attachment unit (20, 40, 60) on the basis of a fact that the stored use information over time does not satisfy a set condition for ensuring a characteristic of the attachment unit (20, 40, 60).
A method of forming a siloxane coating on a soda-lime-silica glass container including the steps of: (a) applying a silane coating composition to an exterior surface of a glass container, wherein the silane coating composition is an aqueous solution consisting essentially of an aminofunctional silane and water; (b) curing the silane coating composition to form a siloxane coating on the exterior surface of the glass container; and then (c) heating the glass container and the siloxane coating to a temperature in the range of 500 degrees Celsius to 700 degrees Celsius to decompose organofunctional groups attached to the siloxane coating, wherein in step (a) a silane coating composition including 0.1-35 wt. % of an aminofunctional silane, with the balance consisting essentially of water is applied. (a) applying a silane coating composition to an exterior surface of a glass container, wherein the silane coating composition is an aqueous solution consisting essentially of an aminofunctional silane and water; (b) curing the silane coating composition to form a siloxane coating on the exterior surface of the glass container; and then (c) heating the glass container and the siloxane coating to a temperature in the range of 500 degrees Celsius to 700 degrees Celsius to decompose organofunctional groups attached to the siloxane coating,
A glass-reinforced plastic pipe liner of improved impact performance applied to the interior of a pipe comprising: - a layer B) consisting of a coat being reinforced by non-woven fibres, the coat being formed from at least one unsaturated polyester resin, optionally mixed with at least one vinyl ester resin; - a layer C) consisting of a coat being reinforced by chopped fibre strands, the coat being formed from at least one unsaturated polyester resin, optionally mixed with at least one vinyl ester resin; wherein at least one of the layers B) or C) comprises colour pigments present at 0.2 - 5.0 wt% per weight of the unsaturated polyester resin. - a layer B) consisting of a coat being reinforced by non-woven fibres, the coat being formed from at least one unsaturated polyester resin, optionally mixed with at least one vinyl ester resin; - a layer C) consisting of a coat being reinforced by chopped fibre strands, the coat being formed from at least one unsaturated polyester resin, optionally mixed with at least one vinyl ester resin;
An ink composition for reducing the etching of a printhead component comprising: a carrier medium; a colorant; a silicon doping agent, and a dispersant in the amount from 0.5% to 2% based on the overall total weight of the ink composition; wherein the silicon doping agent is a silicate which contains a silicate consisting of a silicate salt of aluminum, the silicon doping agent is added at an amount of at least 30 ppm silicon and silicon doping agent saturates the ink composition with silicon, wherein the dispersant is a graft copolymer, the graft copolymer contains a hydrophilic component, a hydrophobic component and a protective colloid component. a carrier medium; a colorant; a silicon doping agent, and a dispersant in the amount from 0.5% to 2% based on the overall total weight of the ink composition; wherein the silicon doping agent is a silicate which contains a silicate consisting of a silicate salt of aluminum, the silicon doping agent is added at an amount of at least 30 ppm silicon and silicon doping agent saturates the ink composition with silicon, wherein the dispersant is a graft copolymer, the graft copolymer contains a hydrophilic component, a hydrophobic component and a protective colloid component.
An apparatus (10, 900, 1000), comprising at least means for: receiving a control element via a control protocol from a network node, wherein the control element reconfigures a specified subset of one or more uplink logical channels, and the apparatus determines that reconfiguration of the specified subset of logical channels is needed; and reconfiguring the specified subset of logical channels; characterized in that the reconfiguration for the specified subset of logical channels is valid for a predetermined time and/or until a certain condition occurs, after which the initial configuration is restored. receiving a control element via a control protocol from a network node, wherein the control element reconfigures a specified subset of one or more uplink logical channels, and the apparatus determines that reconfiguration of the specified subset of logical channels is needed; and reconfiguring the specified subset of logical channels; characterized in that the reconfiguration for the specified subset of logical channels is valid for a predetermined time and/or until a certain condition occurs, after which the initial configuration is restored.
A process for making a high VI lubricating base oil, comprising: a) pyrolyzing a plastic feed to produce a heavy wax; b) hydrocracking a blend, comprising the heavy wax derived from pyrolyzing the plastic feed and a lube oil feedstock, in a lube hydrocracking zone in the presence of a hydrocracking catalyst and hydrogen under lube hydrocracking conditions to produce a hydrocracked stream; and c) dewaxing at least a portion of the hydrocracked stream in a hydroisomerization zone in the presence of a hydroisomerization catalyst and hydrogen under hydroisomerization conditions to produce a base oil; wherein the heavy wax derived from pyrolyzing a plastic feed is a lubricating oil boiling range material with a 343°C+ (650°F+) boiling point; and wherein the conversion rate of the feed boiling above 371°C(700°F) for hydrocracking is more than 20%. a) pyrolyzing a plastic feed to produce a heavy wax; b) hydrocracking a blend, comprising the heavy wax derived from pyrolyzing the plastic feed and a lube oil feedstock, in a lube hydrocracking zone in the presence of a hydrocracking catalyst and hydrogen under lube hydrocracking conditions to produce a hydrocracked stream; and c) dewaxing at least a portion of the hydrocracked stream in a hydroisomerization zone in the presence of a hydroisomerization catalyst and hydrogen under hydroisomerization conditions to produce a base oil;
Conveyor module docking system for a reverse vending machine, comprising a conveyor module and a docking unit, wherein said docking unit is adapted for detachably holding the conveyor module and the conveyor module is detachably mountable to the docking unit; - the docking unit comprises: - a housing, and - a force feed element for outputting a driving power to a force receiving element of the conveyor module, which force feed element is accessible from outside of the docking unit through an opening in the housing, characterised in that - the conveyor module comprises: - two conveyor belts arranged to form a V-shape in a cross-section perpendicular to the conveying direction, - a housing for supporting the conveyor belts, and - a force receiving element for receiving a driving power for driving the conveyor belts, which force receiving element is accessible from outside of the conveyor module through an opening in the housing; and in that the docking unit is provided with guiding surfaces which are positioned in a V-shape in a cross-section perpendicular to a longitudinal direction of the docking unit. - the docking unit comprises: - a housing, and - a force feed element for outputting a driving power to a force receiving element of the conveyor module, which force feed element is accessible from outside of the docking unit through an opening in the housing, characterised in that - the conveyor module comprises: - two conveyor belts arranged to form a V-shape in a cross-section perpendicular to the conveying direction, - a housing for supporting the conveyor belts, and - a force receiving element for receiving a driving power for driving the conveyor belts, which force receiving element is accessible from outside of the conveyor module through an opening in the housing;
A medical device, comprising: a catheter body having a handle, a housing coupled to the handle a separation element having a width disposed within the housing, and a first elongate body at least partially disposed within the housing and forming a loop around at least a portion of the separation element, the first elongate body being a fluid supply conduit traversing a length of the catheter body and in fluid communication with an expandable element which is coupled to the catheter, and a second elongate body at least partially disposed within the catheter body and at least partially disposed within the housing, wherein the separation element includes a path for receiving a portion of the second elongate body which path includes a channel, depression or, aperture passage traversing the body of the separation element. a catheter body having a handle, a housing coupled to the handle a separation element having a width disposed within the housing, and a first elongate body at least partially disposed within the housing and forming a loop around at least a portion of the separation element, the first elongate body being a fluid supply conduit traversing a length of the catheter body and in fluid communication with an expandable element which is coupled to the catheter, and a second elongate body at least partially disposed within the catheter body and at least partially disposed within the housing, wherein the separation element includes a path for receiving a portion of the second elongate body which path includes a channel, depression or, aperture passage traversing the body of the separation element.
An agricultural composition comprising at least one agricultural chemical and at least one cellulose ether, wherein the cellulose ether is a nonionic MEHEC polymer having a degree of substitution of greater than 0.3 for methyl, and a degree of substitution of greater than 0.2 for ethyl, and wherein the composition contains less than 10 wt% of aluminosilicate mineral.
An armature comprising: an armature core with slots; and an armature winding that is housed in the slots, wound in two layers, and provided with fourteen coil pieces per pole and phase, each phase of the armature winding divided into two phase belts (17, 18) per pole, each phase belt (17, 18) having two parallel circuits, each parallel circuit having a serial coil, each serial coil having upper coil pieces (15a, 15b) and lower coil pieces (16a, 16b) connected to each other at a connection-side coil end and a counter-connection side coil end, and the upper and lower coil pieces (15a, 16a, 15b, 16b) in one half of the parallel circuits being located at the 1st, 4th, 6th, 7th, 9th, 12th and 14th positions, and the upper and lower coil pieces (15a, 16a, 15b, 16b) in remaining half of the parallel circuits being located at the 2nd, 3rd, 5th, 8th, 10th, 11th and 13th positions, when relative positions of the upper and lower coil pieces (15a, 16a, 15b, 16b) in each phase belt (17, 18) are indicated by positions counted in a direction separating away from a pole center (Pa, Pb). an armature core with slots; and an armature winding that is housed in the slots, wound in two layers, and provided with fourteen coil pieces per pole and phase, each phase of the armature winding divided into two phase belts (17, 18) per pole, each phase belt (17, 18) having two parallel circuits, each parallel circuit having a serial coil, each serial coil having upper coil pieces (15a, 15b) and lower coil pieces (16a, 16b) connected to each other at a connection-side coil end and a counter-connection side coil end, and the upper and lower coil pieces (15a, 16a, 15b, 16b) in one half of the parallel circuits being located at the 1st, 4th, 6th, 7th, 9th, 12th and 14th positions, and the upper and lower coil pieces (15a, 16a, 15b, 16b) in remaining half of the parallel circuits being located at the 2nd, 3rd, 5th, 8th, 10th, 11th and 13th positions, when relative positions of the upper and lower coil pieces (15a, 16a, 15b, 16b) in each phase belt (17, 18) are indicated by positions counted in a direction separating away from a pole center (Pa, Pb).
A system comprising: a root node (610, 710) in a packet based network that transmits a plurality of packets; an intermediary node coupled to the root node (610, 710); and a plurality of leaf nodes (620, 720) coupled to the intermediary node, wherein the root node (610, 710), the intermediary node, and the plurality of leaf nodes (620, 720) are arranged in a tree topology, wherein the packets are received at the intermediary node from the root node (610, 710) at an upstream data rate equal to a required data rate of the leaf node (620, 720) with the maximum data rate, and wherein the packets are transmitted from the intermediary node to each of the plurality of leaf nodes (620, 720) at a plurality of different required data rates such that each particular one of the plurality of leaf nodes (620, 720) receives the packets at a data rate corresponding to the required data rate for the particular one of the plurality of leaf nodes (620, 720), wherein some of the packets are dropped when at least one of a plurality of downstream required data rates is less than the upstream data rate, wherein the root node (610, 710) is coupled to a master clock associated with the maximum data rate and the leaf nodes (620, 720) are coupled to a plurality of corresponding slave clocks associated with the different required data rates of the leaf nodes (620, 720), and wherein the packets comprise timestamps or frequency/time synchronization information for the master clock and the slave clocks. a root node (610, 710) in a packet based network that transmits a plurality of packets; an intermediary node coupled to the root node (610, 710); and a plurality of leaf nodes (620, 720) coupled to the intermediary node, wherein the root node (610, 710), the intermediary node, and the plurality of leaf nodes (620, 720) are arranged in a tree topology, wherein the packets are received at the intermediary node from the root node (610, 710) at an upstream data rate equal to a required data rate of the leaf node (620, 720) with the maximum data rate, and wherein the packets are transmitted from the intermediary node to each of the plurality of leaf nodes (620, 720) at a plurality of different required data rates such that each particular one of the plurality of leaf nodes (620, 720) receives the packets at a data rate corresponding to the required data rate for the particular one of the plurality of leaf nodes (620, 720), wherein some of the packets are dropped when at least one of a plurality of downstream required data rates is less than the upstream data rate, wherein the root node (610, 710) is coupled to a master clock associated with the maximum data rate and the leaf nodes (620, 720) are coupled to a plurality of corresponding slave clocks associated with the different required data rates of the leaf nodes (620, 720), and wherein the packets comprise timestamps or frequency/time synchronization information for the master clock and the slave clocks.
Method for determining the contact angle (α) of a rolling element bearing comprising an inner ring, an outer ring and a plurality, P, of rolling elements interposed between the inner ring and the outer ring, characterized in that said method comprises the step of determining the relative speed of P-1 or fewer of said plurality, P, of rolling elements with respect to the inner ring and/or the outer ring and determining the contact angle (α) of said rolling element bearing therefrom as said outer ring or said inner ring rotates through less than one revolution.
A stereoscopic image device comprising: a first polarizing beam splitter for reflecting light incident along a first path in a first direction and a second direction and transmitting the light in a third direction based on polarization components of the light; a first reflective member for reflecting the light reflected by the first polarizing beam splitter to a screen; a second polarizing beam splitter for reflecting light incident along a second path in the first direction and the second direction and transmitting the light in the third direction based on polarization components of the light; and a second reflective member for reflecting the light reflected by the second polarizing beam splitter to the screen, the stereoscopic image device being characterized by further comprising: a first light refractive member located on the first path before the first polarization beam splitter and adjusted to prevent the light from being lost at a center of the first polarization beam splitter; and a second light refractive member located on the second path before the second polarization beam splitter and adjusted to prevent the light from being lost at a center of a second polarization beam splitter. a first polarizing beam splitter for reflecting light incident along a first path in a first direction and a second direction and transmitting the light in a third direction based on polarization components of the light; a first reflective member for reflecting the light reflected by the first polarizing beam splitter to a screen; a second polarizing beam splitter for reflecting light incident along a second path in the first direction and the second direction and transmitting the light in the third direction based on polarization components of the light; and a second reflective member for reflecting the light reflected by the second polarizing beam splitter to the screen, the stereoscopic image device being characterized by further comprising: a first light refractive member located on the first path before the first polarization beam splitter and adjusted to prevent the light from being lost at a center of the first polarization beam splitter; and a second light refractive member located on the second path before the second polarization beam splitter and adjusted to prevent the light from being lost at a center of a second polarization beam splitter. a first light refractive member located on the first path before the first polarization beam splitter and adjusted to prevent the light from being lost at a center of the first polarization beam splitter; and a second light refractive member located on the second path before the second polarization beam splitter and adjusted to prevent the light from being lost at a center of a second polarization beam splitter.