mhurhangee/ep-ind-claims huggingface dataset:
A receptacle socket assembly for lighting equipment, said receptacle socket assembly comprising: - a receptacle having a front side and a rear side, said front side being configured for receiving contacts of a control module for controlling the lighting equipment, said receptacle housing a plurality of receptacle contacts (110a-d, 120a-c), each receptacle contact being provided, at a front end, with a front contact portion (111a-d, 121a-c) configured for being electrically connected with a contact of a control module, and, at a rear end, with a rear contact portion (112a-d, 112a', 122a-c, 122a'); - a wire connector having a front side and a rear side, said wire connector housing a plurality of connector contacts (210a-d, 210a', 220a-c, 220a'), each connector contact being provided, at a rear end, with a wire receiving contact portion (212a-d, 212a', 222a-c, 222a') configured for receiving and fixing a wire end of a wire of the lighting equipment and, at a front end, with a front contact portion (211a-d, 211a', 221a-c, 221a'); wherein the rear side of the receptacle and the front side of the wire connector are configured such that the wire connector is removably pluggable in the rear side of the receptacle and such that, in a plugged-in state, the front contact portions (211a-d, 211a', 221a-c, 221a') of the plurality of connector contacts are electrically connected to the rear contact portions (112a-d, 112a', 122a-c, 122a') of the plurality of receptacle contacts. - a receptacle having a front side and a rear side, said front side being configured for receiving contacts of a control module for controlling the lighting equipment, said receptacle housing a plurality of receptacle contacts (110a-d, 120a-c), each receptacle contact being provided, at a front end, with a front contact portion (111a-d, 121a-c) configured for being electrically connected with a contact of a control module, and, at a rear end, with a rear contact portion (112a-d, 112a', 122a-c, 122a'); - a wire connector having a front side and a rear side, said wire connector housing a plurality of connector contacts (210a-d, 210a', 220a-c, 220a'), each connector contact being provided, at a rear end, with a wire receiving contact portion (212a-d, 212a', 222a-c, 222a') configured for receiving and fixing a wire end of a wire of the lighting equipment and, at a front end, with a front contact portion (211a-d, 211a', 221a-c, 221a');
A composition comprising of a peptide with the sequence drqikiwfqnrrmkwkkPGAHQK (SEQ ID NO: 2) for use as a medicament, wherein the use comprises administering to the patient in need of such treatment a therapeutically effective amount of the composition, wherein the therapeutically effective amount is an amount that at least reduces TLR2-MyD88 signaling.
A process for the preparation of a zeolitic material having a FAU-type framework structure comprising YO 2 and X 2 O 3, said process comprising: (a) preparing a mixture comprising one or more sources of YO 2, one or more sources of X 2 O 3, and one or more structure directing agents; (b) crystallizing the zeolitic material from the mixture obtained in (a); wherein Y is a tetravalent element and X is a trivalent element, wherein the one or more structure directing agents comprise one or more isomers of diaminomethylcyclohexane, and wherein Y is Si and X is Al. (a) preparing a mixture comprising one or more sources of YO 2, one or more sources of X 2 O 3, and one or more structure directing agents; (b) crystallizing the zeolitic material from the mixture obtained in (a);
A method for controlling an injection molding filling cycle, comprising: injecting a molten thermoplastic material into a mold cavity so as to ensure that variation of a melt pressure as a function of time substantially conforms to a melt pressure profile comprising one or more time intervals during which the melt pressure is substantially constant; injecting a first gas at an initial pressure into a portion of the mold cavity downstream of a flow front of the injected thermoplastic material; injecting a second gas at an initial pressure into a portion of the mold cavity upstream of the flow front of injected thermoplastic material; determining the melt pressure of the injected molten thermoplastic material; determining a flow front position of the injected molten thermoplastic material; setting the melt pressure during at least one of the one or more time intervals at least in part based on the determined flow front position of the injected molten thermoplastic material; changing the pressure of the first gas at least in part based on at least one of (i) the determined melt pressure of the injected molten thermoplastic material, or (ii) the determined flow front position of the injected molten thermoplastic material; and changing the pressure of the second gas at least in part based on at least one of (i) the determined melt pressure of the injected molten thermoplastic material, or (ii) the determined flow front position of the injected molten thermoplastic material. injecting a molten thermoplastic material into a mold cavity so as to ensure that variation of a melt pressure as a function of time substantially conforms to a melt pressure profile comprising one or more time intervals during which the melt pressure is substantially constant; injecting a first gas at an initial pressure into a portion of the mold cavity downstream of a flow front of the injected thermoplastic material; injecting a second gas at an initial pressure into a portion of the mold cavity upstream of the flow front of injected thermoplastic material; determining the melt pressure of the injected molten thermoplastic material; determining a flow front position of the injected molten thermoplastic material; setting the melt pressure during at least one of the one or more time intervals at least in part based on the determined flow front position of the injected molten thermoplastic material; changing the pressure of the first gas at least in part based on at least one of (i) the determined melt pressure of the injected molten thermoplastic material, or (ii) the determined flow front position of the injected molten thermoplastic material; and changing the pressure of the second gas at least in part based on at least one of (i) the determined melt pressure of the injected molten thermoplastic material, or (ii) the determined flow front position of the injected molten thermoplastic material.
Process for preparing 5-fluoro-1H-pyrazole-4-carbonyl fluorides of the formula wherein R 1 is C 1 -C 6 -alkyl; R 2 is CF 2 H, CF 3, CF 2 Cl, CCl 2 F, C 2 F 5 or C 3 F 7, Characterized in that 5-chloro-1 H-pyrazole-4-carbonyl chlorides of the formula in which R 1 and R 2 are as defined above, is reacted with a fluorinating agent in the presence of a solvent selected among toluene, ethylbenzene, o-, m- and p-xylene (individually or as a mixture), mesitylene, chlorobenzene, and dichlorobenzene, in the presence of a phase transfer catalyst. R 1 is C 1 -C 6 -alkyl; R 2 is CF 2 H, CF 3, CF 2 Cl, CCl 2 F, C 2 F 5 or C 3 F 7, Characterized in that 5-chloro-1 H-pyrazole-4-carbonyl chlorides of the formula in which R 1 and R 2 are as defined above, is reacted with a fluorinating agent in the presence of a solvent selected among toluene, ethylbenzene, o-, m- and p-xylene (individually or as a mixture), mesitylene, chlorobenzene, and dichlorobenzene, in the presence of a phase transfer catalyst.
A tissue retraction assembly for access within a patient's body, comprising: an elongate body shaft; an actuation member movable relative to the elongate body shaft; and a first arm member and a second arm member having at least a distal end attached to a distal tip of the elongate body shaft via a pivot or pinned connection, wherein each arm member (22, 24) is positioned along the elongate body shaft opposite to one another such that each arm member (22, 24) reconfigures radially whereby each arm member (22, 24) is correspondingly configured within a single plane from a low profile to an expanded curved or arcuate planar profile when urged via the actuation member such that the assembly reconfigures along the single plane, and wherein each arm member (22, 24) is further positioned along the elongate body shaft such that each arm member (22, 24) is reconfigurable into an overextended arcuate configuration. an elongate body shaft; an actuation member movable relative to the elongate body shaft; and a first arm member and a second arm member having at least a distal end attached to a distal tip of the elongate body shaft via a pivot or pinned connection, wherein each arm member (22, 24) is positioned along the elongate body shaft opposite to one another such that each arm member (22, 24) reconfigures radially whereby each arm member (22, 24) is correspondingly configured within a single plane from a low profile to an expanded curved or arcuate planar profile when urged via the actuation member such that the assembly reconfigures along the single plane, and wherein each arm member (22, 24) is further positioned along the elongate body shaft such that each arm member (22, 24) is reconfigurable into an overextended arcuate configuration.
An organic light emitting diode display device, comprising: a substrate; a plurality of driving elements and a plurality of light emitting diodes on the substrate; at least one dummy pattern on the substrate and including a first electrode, a dummy layer, and a second electrode; wherein the first electrode and the dummy layer are electrically separated from each other, and wherein the light emitting diode includes an organic light emitting material, and wherein the dummy layer includes an organic light emitting materia, characterised in that the first electrode and the second electrode are respectively connected to an inspection pad. a substrate; a plurality of driving elements and a plurality of light emitting diodes on the substrate; at least one dummy pattern on the substrate and including a first electrode, a dummy layer, and a second electrode; wherein the first electrode and the dummy layer are electrically separated from each other, and wherein the light emitting diode includes an organic light emitting material, and wherein the dummy layer includes an organic light emitting materia, characterised in that the first electrode and the second electrode are respectively connected to an inspection pad.
An arc welding method for welding using a welding wire as a consumable electrode by repeating a short-circuit state and an arc state, the arc welding method being characterized by the steps of: a determining step for determining an increasing gradient of a short-circuit current corresponding to a set current; a calculating step for calculating a difference between an output voltage and a set voltage; and a changing step for temporally changing the increasing gradient of the short-circuit current such that the output voltage is matched with the set voltage, based on the difference between the set voltage and the output voltage, wherein when the output voltage is smaller than the set voltage in the calculating step, the increasing gradient of the short-circuit current is changed so as to be steeper than the increasing gradient of the short-circuit current corresponding to the set current in the changing step, and when the output voltage is larger than the set voltage in the calculating step, the increasing gradient of the short-circuit current is changed so as to be more gradual than the increasing gradient of the short-circuit current corresponding to the set current in the changing step. a determining step for determining an increasing gradient of a short-circuit current corresponding to a set current; a calculating step for calculating a difference between an output voltage and a set voltage; and a changing step for temporally changing the increasing gradient of the short-circuit current such that the output voltage is matched with the set voltage, based on the difference between the set voltage and the output voltage, wherein when the output voltage is smaller than the set voltage in the calculating step, the increasing gradient of the short-circuit current is changed so as to be steeper than the increasing gradient of the short-circuit current corresponding to the set current in the changing step, and when the output voltage is larger than the set voltage in the calculating step, the increasing gradient of the short-circuit current is changed so as to be more gradual than the increasing gradient of the short-circuit current corresponding to the set current in the changing step.
A method of making urea-containing particles comprising the steps of (a) providing a first polymer layer; (b) feeding urea droplets onto said first polymer layer, (c) cooling the droplets provided on the first polymer layer to a temperature between 60°C and 120°C; (d) applying a second polymer layer onto the first polymer layer comprising the droplets so as to form encapsulated urea droplets; and (e) separating the encapsulated urea droplets.
A snow scooter, which includes - a frame comprising a first end and a second end, the frame forming a support for a user, - a steering column joined to the first end of the frame in an articulated manner for steering the snow scooter, - a steering runner joined to the lower end of the steering column for supporting the snow scooter on the surface of a substrate, - a track drive unit connected to the second end of the frame for supporting the snow scooter on the snow and for transmitting thrust to the surface of the substrate, wherein the track drive unit is composed of a track frame, a track formed as a loop, an idler roll and a drive sprocket, - an electric motor for driving the track drive unit, wherein the drive sprocket receives its driving force from the electric motor, and - a battery for storing electricity for the electric motor, wherein the frame includes a battery space formed in the frame for the battery, which battery space is formed in connection with the first end of the frame in front of the track drive unit in the direction of travel of the snow scooter so as to direct the weight of the battery onto the steering runner in order to improve steerability, characterized in that - the snow scooter has only one said steering runner, - the support is a standing platform, - the electric motor is arranged inside the loop of the track, and - the snow scooter is adapted to be used from a standing position. - a frame comprising a first end and a second end, the frame forming a support for a user, - a steering column joined to the first end of the frame in an articulated manner for steering the snow scooter, - a steering runner joined to the lower end of the steering column for supporting the snow scooter on the surface of a substrate, - a track drive unit connected to the second end of the frame for supporting the snow scooter on the snow and for transmitting thrust to the surface of the substrate, wherein the track drive unit is composed of a track frame, a track formed as a loop, an idler roll and a drive sprocket, - an electric motor for driving the track drive unit, wherein the drive sprocket receives its driving force from the electric motor, and - a battery for storing electricity for the electric motor, wherein the frame includes a battery space formed in the frame for the battery, which battery space is formed in connection with the first end of the frame in front of the track drive unit in the direction of travel of the snow scooter so as to direct the weight of the battery onto the steering runner in order to improve steerability, characterized in that - the snow scooter has only one said steering runner, - the support is a standing platform, - the electric motor is arranged inside the loop of the track, and - the snow scooter is adapted to be used from a standing position.
A threshing system for an agricultural combine, comprising: a body supported for rotation in a direction of rotation about a rotational axis therethrough, the body having an outer circumferential surface and including a plurality of mounting lugs disposed at discrete locations thereabout; and a plurality of threshing elements comprising a set of discrete threshing bars and being supported on the mounting lugs at spaced intervals in a generally helical pattern about the body, each set of threshing bars including a leading threshing bar proximate the outer surface of the body and a succession of threshing bars located progressively farther from the outer surface forming a ramp and defining a wedge shaped opening between the threshing bars and the outer surface, characterized in that: each of the threshing elements is supported on at least two mounting lugs; the threshing bars extend generally axially or at a small acute angle to the rotational axis and adjacent ones of the threshing bars have axially extending spaces therebetween sufficiently large for passage of grain therethrough to the wedge shaped opening, thereby allowing threshed grain to enter the wedge shaped opening between the surface of the body and the ramp formed by the threshing element. a body supported for rotation in a direction of rotation about a rotational axis therethrough, the body having an outer circumferential surface and including a plurality of mounting lugs disposed at discrete locations thereabout; and a plurality of threshing elements comprising a set of discrete threshing bars and being supported on the mounting lugs at spaced intervals in a generally helical pattern about the body, each set of threshing bars including a leading threshing bar proximate the outer surface of the body and a succession of threshing bars located progressively farther from the outer surface forming a ramp and defining a wedge shaped opening between the threshing bars and the outer surface, characterized in that: each of the threshing elements is supported on at least two mounting lugs; the threshing bars extend generally axially or at a small acute angle to the rotational axis and adjacent ones of the threshing bars have axially extending spaces therebetween sufficiently large for passage of grain therethrough to the wedge shaped opening, thereby allowing threshed grain to enter the wedge shaped opening between the surface of the body and the ramp formed by the threshing element. each of the threshing elements is supported on at least two mounting lugs; the threshing bars extend generally axially or at a small acute angle to the rotational axis and adjacent ones of the threshing bars have axially extending spaces therebetween sufficiently large for passage of grain therethrough to the wedge shaped opening, thereby allowing threshed grain to enter the wedge shaped opening between the surface of the body and the ramp formed by the threshing element.
An emulsifier composition comprising: a) from 30 to 75 wt.%, or from 40 to 70 wt.% of microcrystalline cellulose; b) from 20 to 75 wt.%, or from 25 to 45 wt.% of at least one biogum of microbial origin; and c) from 5 to 15 wt.%, or from 8 to 12 wt.% of at least one cellulose ether or derivative thereof and wherein all weight percentages are based on the weight of the total composition; wherein said at least one biogum of microbial origin comprises a sphingan exopolysaccharide. a) from 30 to 75 wt.%, or from 40 to 70 wt.% of microcrystalline cellulose; b) from 20 to 75 wt.%, or from 25 to 45 wt.% of at least one biogum of microbial origin; and c) from 5 to 15 wt.%, or from 8 to 12 wt.% of at least one cellulose ether or derivative thereof and wherein all weight percentages are based on the weight of the total composition;
A method of crosstalk reduction for a multi-zone induction heating system comprising the steps of: monitoring a current in each one of a plurality of induction coils (17, 19) associated with a respective one of a plurality of power module sections (10, 13, 16) in the heating system wherein a frequency of the current in each one of the induction coils (17, 19) is substantially similar; detecting continuously in each current a distortion developed by a phase difference of the current in an adjacent one of the induction coils (17, 19); and shifting a phase of the current in one of the induction coils (17, 19) in which the distortion is detected with respect to the phase in the adjacent one of the induction coils (17, 19) until the distortion is substantially eliminated whereby crosstalk therebetween is reduced. monitoring a current in each one of a plurality of induction coils (17, 19) associated with a respective one of a plurality of power module sections (10, 13, 16) in the heating system wherein a frequency of the current in each one of the induction coils (17, 19) is substantially similar; detecting continuously in each current a distortion developed by a phase difference of the current in an adjacent one of the induction coils (17, 19); and shifting a phase of the current in one of the induction coils (17, 19) in which the distortion is detected with respect to the phase in the adjacent one of the induction coils (17, 19) until the distortion is substantially eliminated whereby crosstalk therebetween is reduced.
An assembly-free tool for maintenance of an engine in a vehicle, the tool comprising: a bar extending in an axial direction and having a first portion with a first end and a second portion with a second end; and a housing surrounding the first portion of the bar; wherein the bar is axially translatable in relation to the housing; and wherein the housing comprises an embedded locking structure for holding the bar in a locking position such that the movement of the bar in the axial direction is stopped; and wherein the bar, the housing and the locking structure are retained as one unit such that they are non-detachable from each other. a bar extending in an axial direction and having a first portion with a first end and a second portion with a second end; and a housing surrounding the first portion of the bar; wherein the bar is axially translatable in relation to the housing; and wherein the housing comprises an embedded locking structure for holding the bar in a locking position such that the movement of the bar in the axial direction is stopped; and wherein the bar, the housing and the locking structure are retained as one unit such that they are non-detachable from each other.
An oil filled pressure sensor comprising: a signal drift-stabilized pressure sensing element (R 1; R 2 R 3;R 4) mounted to and electrically isolated from a header body by at least one glass-to-metal seal defining an assembly, the pressure sensing element (R 1; R 2 R 3; R 4) immersed in an oil filled cavity and temperature stabilized for sensing pressure in the cavity without substantial signal drift, wherein the signal drift-stabilized pressure sensing element is a pressure sensing unit with a field shield (R 1; R 2 R 3; R 4); and the oil filled cavity is defined and hermetically sealed from a pressure port, by said assembly comprising the sensing element a baseplate, and a diaphragm disposed between the cavity and the pressure port. a signal drift-stabilized pressure sensing element (R 1; R 2 R 3;R 4) mounted to and electrically isolated from a header body by at least one glass-to-metal seal defining an assembly, the pressure sensing element (R 1; R 2 R 3; R 4) immersed in an oil filled cavity and temperature stabilized for sensing pressure in the cavity without substantial signal drift, wherein the signal drift-stabilized pressure sensing element is a pressure sensing unit with a field shield (R 1; R 2 R 3; R 4); and the oil filled cavity is defined and hermetically sealed from a pressure port, by said assembly comprising the sensing element a baseplate, and a diaphragm disposed between the cavity and the pressure port.