mhurhangee/ep-ind-claims huggingface dataset:
An operating method of a communication node in a wireless communication network, belonging to a storage system, comprising: a three-dimensional storage grid structure containing a plurality of bins stacked in vertical stacks; supporting rails on the grid structure; and a plurality of vehicles, arranged to move along the rails on the grid structure; each vehicle being configured to communicate with a central communication unit via at least one access point, each vehicle comprising a communication node, the communication node includes an internal bus, interconnecting a processing device, a non-volatile memory containing a set of processing instructions in the form of a computer program, and a volatile memory wherein the node communicates with a central communication unit via at least one access point, the operating method comprising: - receiving, at the node, a wireless signal from the access point; - determining, by the node, channel quality information based on the received wireless signal; - determining, by the node, an order of active channels ranked according to the determined channel quality; and - selecting, by the node, an active channel for transmitting wireless signals in accordance with the determined order, and - transmitting, by the node, wireless signals on the selected, active channel; and - performing, by the node, energy measurements on all channels while listening for beacons; and - enumerating and appending the energy measurements to transmitted frames. - receiving, at the node, a wireless signal from the access point; - determining, by the node, channel quality information based on the received wireless signal; - determining, by the node, an order of active channels ranked according to the determined channel quality; and - selecting, by the node, an active channel for transmitting wireless signals in accordance with the determined order, and - transmitting, by the node, wireless signals on the selected, active channel; and - performing, by the node, energy measurements on all channels while listening for beacons; and - enumerating and appending the energy measurements to transmitted frames.
A panel sizing system for sizing panel-like workpieces, in particular for producing furniture, having a saw carriage that is movable along a sawing line for a saw cut, a scoring saw located on the saw carriage, and a main saw located on the saw carriage, wherein the scoring saw includes a first bearing portion, on which a scoring saw blade is at least indirectly supported, and a second bearing portion, on which the first bearing portion is supported, and wherein by means of an adjusting device that includes an input shaft that is supported on one bearing portion, preferably the second bearing portion, the first bearing portion is movable relative to the second bearing portion in a direction that is at least also orthogonal to the plane of the scoring saw blade, characterized in that the input shaft includes an eccentric portion, which engages an eccentric disc that is coupled to the other, preferably the first, bearing portion.
A chromatographic device for separating analytes in a sample comprising: a sample injector having a sample injection needle for injecting the sample into the mobile phase; a sample reservoir container in fluid communication with the sample injector; a chromatography column downstream of the sample injector, the chromatography column having fluid connectors; and fluid conduits connecting the sample injector and the chromatography column; wherein interior surfaces of the fluid conduits, sample injector, sample reservoir container, and chromatography column form a fluidic flow path having wetted surfaces; and wherein at least a portion of the wetted surfaces of the fluidic flow path are coated with an alkylsilyl coating having the Formula I: wherein each X is independently selected from (C 1 -C 6)alkoxy, -NH(Ci-C 6)alkyl, -N((C 1 -C 6)alkyl) 2, OH, OR A, R B, R C, R D and halo; R A represents a point of attachment to the interior surfaces of the fluidic system and at least one X is OR A; R B is absent or represents a hydrophobicity modifier; R C represents a charge modifier and at least one X is R C; R D is absent, a chelator, or a crown ether; and Y is a bridging moiety selected from (C 1 -C 20)alkyl, -O[(CH 2) 2 O] 1-20 -, - (C 1 -C 10)[NH NH(C 1 -C 10)] 1-20 -, or -(C 1 -C 10)[alkylphenyl(C 1 -C 10)alkyl] 1-20 -. a sample injector having a sample injection needle for injecting the sample into the mobile phase; a sample reservoir container in fluid communication with the sample injector; a chromatography column downstream of the sample injector, the chromatography column having fluid connectors; and fluid conduits connecting the sample injector and the chromatography column; wherein interior surfaces of the fluid conduits, sample injector, sample reservoir container, and chromatography column form a fluidic flow path having wetted surfaces; and wherein at least a portion of the wetted surfaces of the fluidic flow path are coated with an alkylsilyl coating having the Formula I: wherein each X is independently selected from (C 1 -C 6)alkoxy, -NH(Ci-C 6)alkyl, -N((C 1 -C 6)alkyl) 2, OH, OR A, R B, R C, R D and halo; R A represents a point of attachment to the interior surfaces of the fluidic system and at least one X is OR A; R B is absent or represents a hydrophobicity modifier; R C represents a charge modifier and at least one X is R C; R D is absent, a chelator, or a crown ether; and Y is a bridging moiety selected from (C 1 -C 20)alkyl, -O[(CH 2) 2 O] 1-20 -, - (C 1 -C 10)[NH NH(C 1 -C 10)] 1-20 -, or -(C 1 -C 10)[alkylphenyl(C 1 -C 10)alkyl] 1-20 -. wherein each X is independently selected from (C 1 -C 6)alkoxy, -NH(Ci-C 6)alkyl, -N((C 1 -C 6)alkyl) 2, OH, OR A, R B, R C, R D and halo; R A represents a point of attachment to the interior surfaces of the fluidic system and at least one X is OR A; R B is absent or represents a hydrophobicity modifier; R C represents a charge modifier and at least one X is R C; R D is absent, a chelator, or a crown ether; and Y is a bridging moiety selected from (C 1 -C 20)alkyl, -O[(CH 2) 2 O] 1-20 -, - (C 1 -C 10)[NH NH(C 1 -C 10)] 1-20 -, or -(C 1 -C 10)[alkylphenyl(C 1 -C 10)alkyl] 1-20 -.
An implantable medical device, IMD, configured to wirelessly receive power from an electromagnetic field, comprising: a case housing control circuitry for the IMD, wherein at least a portion of the case is conductive, and wherein a case current is formed in the conductive case portion in response to the electromagnetic field; power reception circuitry inside the case; a non-conductive header affixed to the case; and first and second electrical connections to divert at least some of the case current as a power current to the power reception circuitry, wherein the first electrical connection comprises a first antenna portion in or on the header and wherein the second electrical connection comprises a second antenna portion in or on the header, wherein the power reception circuitry is configured to use the power current to provide power to the IMD. a case housing control circuitry for the IMD, wherein at least a portion of the case is conductive, and wherein a case current is formed in the conductive case portion in response to the electromagnetic field; power reception circuitry inside the case; a non-conductive header affixed to the case; and first and second electrical connections to divert at least some of the case current as a power current to the power reception circuitry, wherein the first electrical connection comprises a first antenna portion in or on the header and wherein the second electrical connection comprises a second antenna portion in or on the header, wherein the power reception circuitry is configured to use the power current to provide power to the IMD.
A compound of Formula or a stereochemically isomeric form thereof, wherein R 1 is selected from C 1-6 alkyl, (C 3-8 cycloalkyl)C 1-3 alkyl, and (C 1-3 alkyloxy)C 1-3 alkyl; or a pharmaceutically acceptable salt or solvate thereof.
A filter device with a filter housing pot and a filter housing having a filter housing cover, wherein the filter housing pot is formed from metal, characterized in, that the filter housing cover has a metallic component in the form of an aperture mask with at least one through-opening (6, 6') as well as a component formed from plastic in the form of at least one port (5, 5') made from plastic for feeding/emptying the filter device, which port is sealed with respect to the filter housing pot and projects through the through-opening (6, 6') of the filter housing cover and that in the filter housing cover a further through-opening (6") is provided through which a heating device or a sensor projects.
A liquid chromatography solvent pump comprising: a motor; a first piston; a second piston; a variable output drive system coupling the motor to at least one of the first piston and the second piston, the variable output drive system comprising a gearbox configured to provide a non-equal ratio between an input (56, 156) from the motor and an output (53, 153) delivered to at least one of the first piston and the second piston, wherein the first piston and the second piston are configured to deliver a flow of solvent in a liquid chromatography system. a motor; a first piston; a second piston; a variable output drive system coupling the motor to at least one of the first piston and the second piston, the variable output drive system comprising a gearbox configured to provide a non-equal ratio between an input (56, 156) from the motor and an output (53, 153) delivered to at least one of the first piston and the second piston, wherein the first piston and the second piston are configured to deliver a flow of solvent in a liquid chromatography system.
A method for producing ammonium sulfate nitrate comprising: (a) providing, at a temperature of less than 175°C, a mixture comprising ammonium nitrate, ammonium sulfate, and water at a water content based on the total weight of ammonium nitrate, ammonium sulfate and water in the mixture such that at least about 0.5 wt.% water is present during subsequent solidification, wherein the ammonium sulfate: ammonium nitrate molar ratio is from 0.9:1 to 1.1:1; and (b) forming from said mixture ANS (Ammonium Nitrate Sulfate) double salt by cooling at least a portion of the mixture at a rate of less than about 100°C/min. (a) providing, at a temperature of less than 175°C, a mixture comprising ammonium nitrate, ammonium sulfate, and water at a water content based on the total weight of ammonium nitrate, ammonium sulfate and water in the mixture such that at least about 0.5 wt.% water is present during subsequent solidification, wherein the ammonium sulfate: ammonium nitrate molar ratio is from 0.9:1 to 1.1:1; and (b) forming from said mixture ANS (Ammonium Nitrate Sulfate) double salt by cooling at least a portion of the mixture at a rate of less than about 100°C/min.
A sonotrode, comprising: (a) a sealing face; (b) a front quarter wavelength region adjacent to the sealing face, wherein the front quarter wavelength region has been modified to increase the gain of the sonotrode; and (c) a rear quarter wavelength region adjacent to the front quarter wavelength region, characterized in that the rear quarter wavelength region comprises discrete areas of varying thickness configured to create a non-uniform amplitude profile across the length of the sealing face of the sonotrode; wherein the non-uniform amplitude profile includes a region of lower amplitude in the center of the sealing face and regions of higher amplitude on the outer edges of the sealing face. (a) a sealing face; (b) a front quarter wavelength region adjacent to the sealing face, wherein the front quarter wavelength region has been modified to increase the gain of the sonotrode; and (c) a rear quarter wavelength region adjacent to the front quarter wavelength region, characterized in that the rear quarter wavelength region comprises discrete areas of varying thickness configured to create a non-uniform amplitude profile across the length of the sealing face of the sonotrode;
A tyre building method, the method comprising the step of winding a body ply, having tread ply inserts, about a building drum, so that a first end of the body ply overlaps a second end, opposite the first end, of the body ply, to form an annular body ply; the method being characterized by comprising the further step, prior to winding the body ply about the building drum, of forming a recess on the second end of the body ply, on which the first end rests, and at each tread ply insert.
Pressure control valve device for supplying corrosive media, in particular a corrosive fuel to an internal combustion engine, comprising a valve housing with a media inlet and a media outlet, a valve seat fixedly provided in the valve housing and having a valve opening which creates a connection between media inlet and media outlet, a valve body, which is retained such that it can move between a first and a second end position, wherein in the first end position it rests on the valve seat and closes the valve seat opening, and in the second end position at least partly opens the valve seat opening, wherein the valve body comprises a tubular housing, a sealing element which has a sealing lip which rests on the housing of the valve body and interacts in a sealing manner with the latter, wherein at least the sealing lip consists of a PTFE (polytetrafluoroethylene) material, and an elongated control plunger for controlling the valve body, of which one end interacts with the valve body, wherein control plunger and valve body are connected in an articulated manner.
A method comprising: receiving, by a system including an image capture device and a processor, data including an image of an input object captured by the image capture device, the input object having a first retroreflective pattern and a second, different retroreflective pattern on a surface of the input object, wherein the data captured by the image capture device further includes depth information, and wherein the system determines a position of the input object in three dimensions based on the received data characterized by: processing the image to a processed image that highlights the input object; converting the depth information to a depth image which highlights the input object; combining the processed image and the depth image to produce an output image; and determining said position of the input object using the output image. receiving, by a system including an image capture device and a processor, data including an image of an input object captured by the image capture device, the input object having a first retroreflective pattern and a second, different retroreflective pattern on a surface of the input object, wherein the data captured by the image capture device further includes depth information, and wherein the system determines a position of the input object in three dimensions based on the received data characterized by: processing the image to a processed image that highlights the input object; converting the depth information to a depth image which highlights the input object; combining the processed image and the depth image to produce an output image; and determining said position of the input object using the output image. processing the image to a processed image that highlights the input object; converting the depth information to a depth image which highlights the input object; combining the processed image and the depth image to produce an output image; and determining said position of the input object using the output image.
An approximately cylindrical urethane-made rebound stopper (100; 200; 200a; 300) which is attached to an outer circumference of a rod arranged reciprocably in a cylinder while being arranged as having one end side faced to a rebound sheet which is arranged at the rod and having the other end side faced to a member to be hit which is arranged at an inner circumference of the cylinder and which absorbs impact as being compressed by the rebound sheet and the member to be hit as the other end side hitting the member to be hit when the rod is moved in a direction in which the rebound sheet approaches to the member to be hit, characterised in that a plurality of protruding portions (121-123, 131-133) is arranged at each end side while the protruding portions at one end side and the protruding portions at the other end side are arranged at positions as being shifted in the circumferential direction.
A device (100, 300) for measuring material level inside a container (102, 304), the container (102, 304) having a cap (104, 302) for closing an opening of a neck (103, 305) of the container (102, 304), the device (100, 300) comprising: a housing unit (118, 320) removably attachable to the cap (104, 302) of the container (102, 304) for holding a material such as a beverage, wherein the housing unit (118, 320) is configured to remain attached to the cap (104, 302) when the cap (104, 302) is at least partially removed from the container (102, 304), said housing unit (118, 320) enclosing a bottom cover (106, 306) attached to the housing unit (118, 320) and configured to be placed on the cap (104, 302) of the container (102, 304); a signal producing unit located in the housing unit (118, 320); a first sensor (108, 310) located in the housing unit (118, 320) to sense a beverage level in the container (102, 304); and a controller (114, 316) located in the housing unit (118, 320), said controller (114, 316) configured to: receive from the first sensor (108, 310) an indication of a beverage level in the container (102, 304); and activate the signal producing unit based at least on the indication of the beverage level in the container. a housing unit (118, 320) removably attachable to the cap (104, 302) of the container (102, 304) for holding a material such as a beverage, wherein the housing unit (118, 320) is configured to remain attached to the cap (104, 302) when the cap (104, 302) is at least partially removed from the container (102, 304), said housing unit (118, 320) enclosing a bottom cover (106, 306) attached to the housing unit (118, 320) and configured to be placed on the cap (104, 302) of the container (102, 304); a signal producing unit located in the housing unit (118, 320); a first sensor (108, 310) located in the housing unit (118, 320) to sense a beverage level in the container (102, 304); and a controller (114, 316) located in the housing unit (118, 320), said controller (114, 316) configured to: receive from the first sensor (108, 310) an indication of a beverage level in the container (102, 304); and activate the signal producing unit based at least on the indication of the beverage level in the container. receive from the first sensor (108, 310) an indication of a beverage level in the container (102, 304); and activate the signal producing unit based at least on the indication of the beverage level in the container.
System comprising a stack of series-connected electrochemical units, the system comprising: - shunt circuits, each connected between a positive pole and a negative pole of an electrochemical unit, and - a control circuit, arranged for sending a control signal to at least one of the shunt circuits to cause it to shunt the electrochemical unit between the poles of which it is connected, the system including control modules each having its own voltage reference, each of the shunt circuits belonging to one of the modules, each control module including several shunt circuits and the shunt circuits belonging to one control module being connected between the poles of the contiguous electrochemical units, so that the control modules subdivide the stack into several groups of electrochemical units, each control module including means for communicating with the control circuit, so that the control circuit can control the shunt circuits belonging to different control modules, characterized in that the shunt circuits are each associated with a voltage measuring means for measuring the potential difference between the poles of the electrochemical unit to which the shunt circuit is connected, in that each control module comprises a calculation unit arranged for receiving signals from the control circuit, and in that said shunt circuits have a variable impedance which is controlled by said calculation unit according to the signals received from the control circuit, and the potential difference between the poles of the units with which said shunt means are respectively associated, each control module further comprising its own power system so that said module can function even if the control system of one stack of electrochemical units is not functioning. - shunt circuits, each connected between a positive pole and a negative pole of an electrochemical unit, and - a control circuit, arranged for sending a control signal to at least one of the shunt circuits to cause it to shunt the electrochemical unit between the poles of which it is connected,
A reflector damper bracket comprising a link damper and a link bracket, - wherein the link damper - includes a post adapted for attachment to a headlamp housing, and - is configured to damp movement of the link bracket and of the at least one reflector (2, 3), and - wherein the link bracket is in frictional sliding engagement with the link damper, the link bracket including at least one ball adapted for attachment to at least one reflector (2, 3), wherein, for creating a wedge fit which helps to achieve a desired friction force, one of the link bracket and the link damper includes a plate having spaced apart parallel edges, each of the spaced apart parallel edges being provided with a wedge shape, and the other includes a C-shaped portion in frictional sliding engagement with the plate. - wherein the link damper - includes a post adapted for attachment to a headlamp housing, and - is configured to damp movement of the link bracket and of the at least one reflector (2, 3), and - includes a post adapted for attachment to a headlamp housing, and - is configured to damp movement of the link bracket and of the at least one reflector (2, 3), and - wherein the link bracket is in frictional sliding engagement with the link damper, the link bracket including at least one ball adapted for attachment to at least one reflector (2, 3),
Lubricant composition comprising (a) a base oil having a viscosity of 30 to 70 mm 2 /s at 40°C, (b) 0.05 to 1.5% by weight, based on the total weight of the composition, of a hydrolysis protection component comprising at least one epoxidized C 11 -C 22 fatty acid C 1 -C 12 alkyl ester and/or at least one epoxidized C 11 -C 22 fatty acid glyceride having an epoxy oxygen content of 1 to 10% by weight, based on the total mass of epoxidized fatty acid C 1 -C 12 alkyl ester and/or epoxidized fatty acid glyceride, and (c) 0.05 to 2% by weight, based on the total weight of the composition, of a rust and oxidation inhibitor, containing at least one singly or multiply C 1 -C 12 alkyl-substituted phenol and at least one arylamine. (a) a base oil having a viscosity of 30 to 70 mm 2 /s at 40°C, (b) 0.05 to 1.5% by weight, based on the total weight of the composition, of a hydrolysis protection component comprising at least one epoxidized C 11 -C 22 fatty acid C 1 -C 12 alkyl ester and/or at least one epoxidized C 11 -C 22 fatty acid glyceride having an epoxy oxygen content of 1 to 10% by weight, based on the total mass of epoxidized fatty acid C 1 -C 12 alkyl ester and/or epoxidized fatty acid glyceride, and (c) 0.05 to 2% by weight, based on the total weight of the composition, of a rust and oxidation inhibitor, containing at least one singly or multiply C 1 -C 12 alkyl-substituted phenol and at least one arylamine.
A dry air stable alkali metal silicide composition comprising the product of: mixing an alkali metal with powdered silicon in an inert atmosphere and heating the resulting mixture at a temperature below 475 °C.