mhurhangee/ep-ind-claims huggingface dataset:
An electrical plug connector with a tubular housing section, in which a multi-part insulating body with electrical contact members is arranged, wherein the insulating body includes at least one contact carrier with radially inserted contact members and a contact carrier casing member, which may be slid onto the contact carrier for holding the contact members, which may be inserted into the housing section in the axial direction from a side of the housing section opposite to the insertion side of the plug connector, wherein the contact carrier is releasably lockable to the contact carrier casing member and the contact carrier casing member is releasably fixable to the housing section, wherein the contact carrier casing member includes axially arranged spring arms (12, 14) at a rear casing end that is remote from the insertion side, wherein at least one first spring arm includes an outer locking element projecting radially towards the housing section and at least one second spring arm includes an inner locking element projecting radially in the direction of the contact carrier, characterised in that, when the insulating body is inserted into the housing section, the second spring arms support against the inside of the housing section, wherein the contact carrier includes a recess associated with the first spring arm, which enables release of the outer locking element from the housing section.
A relative bearing sensor for determining an orientation of a device, the relative bearing sensor comprising: a ferromagnetic housing, the ferromagnetic housing comprising: a ferromagnetic ball configured to roll with respect to an orientation of the ferromagnetic housing; a magnetic flux sensor; a permanent magnet configured to emit a plurality of magnetic flux lines through the magnetic flux sensor, the plurality of magnetic flux lines steered by a location of the ferromagnetic ball; and a processor; characterized in that the processor is programmed to: determine a flux angle (128, 328, 428) of the plurality of magnetic flux lines; compare the determined flux angle (128, 328, 428) with a predefined flux angle; and determine an orientation of the device based on the comparing; wherein the predefined flux angle corresponds to a particular orientation of the device. a ferromagnetic ball configured to roll with respect to an orientation of the ferromagnetic housing; a magnetic flux sensor; a permanent magnet configured to emit a plurality of magnetic flux lines through the magnetic flux sensor, the plurality of magnetic flux lines steered by a location of the ferromagnetic ball; and a processor; determine a flux angle (128, 328, 428) of the plurality of magnetic flux lines; compare the determined flux angle (128, 328, 428) with a predefined flux angle; and determine an orientation of the device based on the comparing; wherein the predefined flux angle corresponds to a particular orientation of the device.
An optical imaging system (100, 500, 600) for a fast aperture camera, the system being operable to receive radiation from an object space and deliver the received radiation through the optical system so as to form an image at an image surface in an image space, said optical system comprising: a first positively powered lens group (G1, 501) and a second positively powered lens group (G2, 502) arranged in that order from object space to the image space of the optical system and aligned on a common optical axis, wherein the first positively powered lens group comprises a plurality of optical elements, wherein at least one of the plurality of optical elements (G1a 501a) is stationary, and at least one of the plurality of optical elements has an aspheric optical surface; and the second positively powered lens group (G2, 502) is operable to move axially along the common optical axis, wherein at least one optical element of the second lens group has an aspheric optical surface (Fig 7: S32, Fig 12: S25, Fig 15: S22); the second group additionally comprises a pair of positively powered singlet lenses (Fig 7: L18, L19; Fig 12: L15, L16; Fig 15: L13, L14); wherein the pair of positively powered singlet lenses (Fig 7: L18, L19; Fig 12: L15, L16; Fig 15: L13, L14) is arranged adjacent to one another; the pair of positively powered singlet lenses (Fig 7: L18, L19; Fig 12: L15, L16; Fig 15: L13, L14) is positioned as last lenses at the image space end of the optical imaging system; and wherein the lens (Fig 7: L18, Fig 12: L15, Fig 15: L13) of the pair of positively powered singlet lenses that is closer to the object space has a refractive index of 1.808 at 587.56 nm and an Abbe number of 22.8 at 587.56 nm characterised in that said optical imaging system (100, 500, 600) is a fixed focal length optical imaging system and in that said second positively powered lens group (G2, 502) is configured for focusing said optical imaging system.
An assembly for performing start-up testing on a fluid flow control device having a valve body defining an inlet, an outlet, and a fluid flow path extending between the inlet and the outlet, and a valve seat disposed within the valve body and defining an orifice through which the fluid flow path passes, the assembly comprising: a retainer adapted to be disposed in the valve body; and a sealing assembly coupled to a portion of the retainer and adapted to be disposed adjacent the valve seat, characterized in that the sealing assembly is threaded to the retainer proximate to an end of the retainer, and in that the sealing assembly comprises a first sealing element, a second sealing element, and a spacer disposed between the first and second sealing elements such that the sealing assembly is configured to provide a seal during start-up testing at all service temperatures between approximately -198 degrees Celsius (-325 degrees Fahrenheit) and approximately 677 degrees Celsius (1250 degrees Fahrenheit), wherein the first sealing element comprises a first C-seal and the second sealing element comprises a second C-seal and wherein the first C-seal and the second C-seal are each made of a corrosion-resistant metal. a retainer adapted to be disposed in the valve body; and a sealing assembly coupled to a portion of the retainer and adapted to be disposed adjacent the valve seat, characterized in that the sealing assembly is threaded to the retainer proximate to an end of the retainer, and in that the sealing assembly comprises a first sealing element, a second sealing element, and a spacer disposed between the first and second sealing elements such that the sealing assembly is configured to provide a seal during start-up testing at all service temperatures between approximately -198 degrees Celsius (-325 degrees Fahrenheit) and approximately 677 degrees Celsius (1250 degrees Fahrenheit), wherein the first sealing element comprises a first C-seal and the second sealing element comprises a second C-seal and wherein the first C-seal and the second C-seal are each made of a corrosion-resistant metal.
An apparatus configured for predicting power loss of a transformer comprising a winding and insulating oil, the apparatus comprising a measurement unit, a calculation unit, a storage unit, and a determination unit, characterized in, that the measurement unit comprises a winding temperature indicator, a liquid thermometer, and an optical sensor, the measurement unit being configured to measure a temperature of the winding and the insulating oil of the transformer and an ambient temperature of the transformer, wherein the ambient temperature of the transformer is a temperature of an outer portion of the transformer; that the storage unit is configured to set and store reference data, wherein the reference data includes the power loss dependent upon a saturation temperature and a temperature slope of the transformer, wherein the power loss includes no-load power and load power, wherein the saturation temperature is a temperature of the transformer when a variation rate of the temperature of the winding or the insulating oil and a variation rate of the ambient temperature are within a preset range; that the calculation unit is configured to calculate temperature data of the transformer, the temperature data including the saturation temperature and the temperature slope of the transformer, wherein the temperature slope is the variation rate of the temperature of the winding, the insulating oil, or the optical sensor according to time; and that the determination unit is configured to determine the power loss of the transformer by comparing the temperature data with the reference data.
A chemical reactor apparatus based on a fluid flow, the chemical reactor apparatus encompassing - a substrate with a fluid channel defined by a channel wall, in which the channel has an inlet and an outlet and where the channel has a longitudinal axis, in accordance with the average fluid flow direction of a liquid in the channel from inlet to outlet, - an ordered set of pillar structures positioned in the channel, with the individual pillar structures having a length in the direction of the longitudinal axis of the channel and have a width in a direction perpendicular to the longitudinal axis, the individual pillar structures can have a width to length ratio of at least 7. - a substrate with a fluid channel defined by a channel wall, in which the channel has an inlet and an outlet and where the channel has a longitudinal axis, in accordance with the average fluid flow direction of a liquid in the channel from inlet to outlet, - an ordered set of pillar structures positioned in the channel, with the individual pillar structures having a length in the direction of the longitudinal axis of the channel and have a width in a direction perpendicular to the longitudinal axis,
A compressor comprising: a compressor housing; a compression chamber positioned within the compressor housing; male and female screw rotors (112,114) rotatably meshed together within the compression chamber, the screw rotors operable for compressing a working fluid; a lubricant port in fluid communication with the compression chamber a nozzle insert positioned within the lubricant port; and characterized by: the nozzle insert having a longitudinal body extending between a first end and a second end, and at least one blade extending radially from an outer wall of the longitudinal body; a swirl chamber formed by the nozzle insert within the lubricant port, the at least one blade configured to generate an angular flow velocity within the swirl chamber and discharge atomized lubricant into the compressor chamber; and a plug positioned in one end of the of the lubricant port opposite of the nozzle insert. a compressor housing; a compression chamber positioned within the compressor housing; male and female screw rotors (112,114) rotatably meshed together within the compression chamber, the screw rotors operable for compressing a working fluid; a lubricant port in fluid communication with the compression chamber a nozzle insert positioned within the lubricant port; and characterized by: the nozzle insert having a longitudinal body extending between a first end and a second end, and at least one blade extending radially from an outer wall of the longitudinal body; a swirl chamber formed by the nozzle insert within the lubricant port, the at least one blade configured to generate an angular flow velocity within the swirl chamber and discharge atomized lubricant into the compressor chamber; and a plug positioned in one end of the of the lubricant port opposite of the nozzle insert. the nozzle insert having a longitudinal body extending between a first end and a second end, and at least one blade extending radially from an outer wall of the longitudinal body; a swirl chamber formed by the nozzle insert within the lubricant port, the at least one blade configured to generate an angular flow velocity within the swirl chamber and discharge atomized lubricant into the compressor chamber; and a plug positioned in one end of the of the lubricant port opposite of the nozzle insert.
Method (a-r) for carrying out a cleaning procedure for a cooking appliance with at least the following steps: (a) a user filling a first tank of the cooking appliance with water, (b) moving a first portion of the water present in the first tank into a buffer store of the cooking appliance, (c) moving the water present in the buffer store into a cooking chamber of the cooking appliance to provide a first treatment agent in the cooking chamber, (d) leaving the first treatment agent in the cooking chamber for a first time period, (e) moving a second portion of the water present in the first tank into the buffer store, (f) moving the first treatment agent into the first tank, (g) moving the water present in the buffer store into the cooking chamber to provide a second treatment agent in the cooking chamber, (h) leaving the second treatment agent in the cooking chamber for a second time period and (i) moving the second treatment agent into the first tank. (a) a user filling a first tank of the cooking appliance with water, (b) moving a first portion of the water present in the first tank into a buffer store of the cooking appliance, (c) moving the water present in the buffer store into a cooking chamber of the cooking appliance to provide a first treatment agent in the cooking chamber, (d) leaving the first treatment agent in the cooking chamber for a first time period, (e) moving a second portion of the water present in the first tank into the buffer store, (f) moving the first treatment agent into the first tank, (g) moving the water present in the buffer store into the cooking chamber to provide a second treatment agent in the cooking chamber, (h) leaving the second treatment agent in the cooking chamber for a second time period and (i) moving the second treatment agent into the first tank.
A galley cart comprising: a housing defining a cavity therein; at least one horizontal support rail extending from the housing within the cavity; a plurality of slots in the at least one support rail and integral to the support rail; and at least one refrigerant brick having mating tabs extending from opposing sides (209a, 209b) of the at least one refrigerant brick received into said slots in the at least one support rail to couple the refrigerant brick within the cavity. a housing defining a cavity therein; at least one horizontal support rail extending from the housing within the cavity; a plurality of slots in the at least one support rail and integral to the support rail; and at least one refrigerant brick having mating tabs extending from opposing sides (209a, 209b) of the at least one refrigerant brick received into said slots in the at least one support rail to couple the refrigerant brick within the cavity.
A method for executing software applications on a PC-based scale comprising: (a) executing a scale application on a PC-based scale for controlling exclusive access to weighing functionality and peripherals of a PC-based scale; (b) defining in said scale application functionality for exchanging messages through a port, said messages exchanged with at least one other software application executing on said PC-based scale; (c) installing a secondary software application for exchanging messages with said scale application through said port according to said functionality in said scale application for exchanging messages; (d) launching said secondary software application to cause said secondary software application to connect to said scale application through said port; and (e) activating and controlling said secondary software application, said secondary software application activated and controlled by said scale application by sending a message to said secondary software application through said port. (a) executing a scale application on a PC-based scale for controlling exclusive access to weighing functionality and peripherals of a PC-based scale; (b) defining in said scale application functionality for exchanging messages through a port, said messages exchanged with at least one other software application executing on said PC-based scale; (c) installing a secondary software application for exchanging messages with said scale application through said port according to said functionality in said scale application for exchanging messages; (d) launching said secondary software application to cause said secondary software application to connect to said scale application through said port; and (e) activating and controlling said secondary software application, said secondary software application activated and controlled by said scale application by sending a message to said secondary software application through said port.
An organic light emitting display device (DP-2), comprising: a base layer; a circuit layer (DP-CL) on the base layer; a display element layer (DP-OLED) on the circuit layer; and an optical control unit on the display element layer, wherein the optical control unit comprises first refractive index layers (IRL-G1), second refractive index layers (IRL-G2), and an optical compensation layer (IRL-G3) which comprises a lower optical compensation layer (IRL3-L) below the lowermost refractive index layer and an upper optical compensation layer (IRL3-U) on the uppermost refractive index layer, the second refractive index layers are stacked in an alternating manner with the first refractive index layers and have a refractive index different from a refractive index of the first refractive index layers, the lower optical compensation layer comprises a material that is different from the lowermost refractive index layer and is the same as a refractive index layer directly on the lowermost refractive index layer, the upper optical compensation layer comprises a material that is different from the uppermost refractive index layer and is the same as a refractive index layer directly below the uppermost refractive index layer, and a thickness of the lower optical compensation layer is 45% to 55% of a thickness of the refractive index layer directly on the lowermost refractive index layer. a base layer; a circuit layer (DP-CL) on the base layer; a display element layer (DP-OLED) on the circuit layer; and an optical control unit on the display element layer, wherein the optical control unit comprises first refractive index layers (IRL-G1), second refractive index layers (IRL-G2), and an optical compensation layer (IRL-G3) which comprises a lower optical compensation layer (IRL3-L) below the lowermost refractive index layer and an upper optical compensation layer (IRL3-U) on the uppermost refractive index layer, the second refractive index layers are stacked in an alternating manner with the first refractive index layers and have a refractive index different from a refractive index of the first refractive index layers, the lower optical compensation layer comprises a material that is different from the lowermost refractive index layer and is the same as a refractive index layer directly on the lowermost refractive index layer, the upper optical compensation layer comprises a material that is different from the uppermost refractive index layer and is the same as a refractive index layer directly below the uppermost refractive index layer, and a thickness of the lower optical compensation layer is 45% to 55% of a thickness of the refractive index layer directly on the lowermost refractive index layer.
An implantable device, comprising: a first electrode (606, 810) and a second electrode (608, 812) configured to engage a peripheral nerve and detect an electrophysiological signal, characterized in that the device further comprises an integrated circuit comprising a multi-transistor circuit and a modulation circuit configured to modulate a current based on the electrophysiological signal; and an ultrasonic transducer configured to emit an ultrasonic backscatter encoding the electrophysiological signal from the peripheral nerve based on the modulated current. a first electrode (606, 810) and a second electrode (608, 812) configured to engage a peripheral nerve and detect an electrophysiological signal, characterized in that the device further comprises an integrated circuit comprising a multi-transistor circuit and a modulation circuit configured to modulate a current based on the electrophysiological signal; and an ultrasonic transducer configured to emit an ultrasonic backscatter encoding the electrophysiological signal from the peripheral nerve based on the modulated current.
A discharge device for discharging electrostatic charges from a shaft, the discharge device comprising a contact strand which is disposable in a frame support so as to be tangential relative to a contact circumference of the shaft in such a manner that a contact surface is formed between the contact strand and the contact circumference of the shaft when the contact strand is in a contact position, characterized in that the contact strand has a fiber arrangement composed of a plurality of carbon fibers, and the frame support is provided with a bearing mount on a frame side parallel to the contact strand, the bearing mount being connected to a bearing axis disposed in a rack in a defined manner, the contact pressure exerted on the contact circumference of the shaft by the contact strand being settable by changing the radial distance between the bearing axis and the contact circumference.