mhurhangee/ep-ind-claims huggingface dataset:
Certificate token for providing a digital certificate of a user, the certificate token comprising: a memory which comprises a request data record for transmitting the digital certificate of the user, the request data record comprising a signed personal date of the user and a public certificate key of the digital certificate; and a communication interface which is configured to provide the request data record for transmission via a communication network to an electronic certification service and to receive the digital certificate of the user from the electronic certification service in order to provide the digital certificate, characterized in that the request data record is signed with a private signature key of a production system with which the certificate token was produced. a memory which comprises a request data record for transmitting the digital certificate of the user, the request data record comprising a signed personal date of the user and a public certificate key of the digital certificate; and a communication interface which is configured to provide the request data record for transmission via a communication network to an electronic certification service and to receive the digital certificate of the user from the electronic certification service in order to provide the digital certificate, characterized in that the request data record is signed with a private signature key of a production system with which the certificate token was produced.
A hydrodynamic nozzle for a generation of a high pressure pulsating jet of a liquid without cavitation and presence of saturated vapours, which is characterized by the fact, that it is composed of an oscillatory chamber, at least two input openings of the oscillatory chamber and a output neck of the oscillatory chamber, where a flow cross-sectional area of the input openings of the oscillatory chamber is larger or equal than the flow cross-sectional area of the output neck of the oscillatory chamber, where input openings of the oscillatory chamber have constant or diminishing cross-section in a flow direction, wherein the input openings of the oscillatory chamber have a rectangle or square shape in longitudinal section in flow direction.
A method of livestock rearing, comprising: providing a livestock shed having a floor area over which livestock can move freely; providing a plurality of lights arranged to illuminate respective different regions of the floor area so that, collectively, the lights are able to illuminate substantially all of the floor area; providing a plurality of cameras arranged to view respective different regions of the floor area so that, collectively, the cameras are able to view substantially all of the floor area; providing livestock in the livestock shed on the floor area; providing a controller operatively connected to the lights and to the cameras; the controller receiving and analysing signals from the cameras; the controller controlling at least one of the lights to adjust illumination provided to the floor area by said at least one of the lights in a manner dependent on the signals from the cameras, wherein said adjustment of the illumination comprises adjusting a wavelength spectrum of the illumination. providing a livestock shed having a floor area over which livestock can move freely; providing a plurality of lights arranged to illuminate respective different regions of the floor area so that, collectively, the lights are able to illuminate substantially all of the floor area; providing a plurality of cameras arranged to view respective different regions of the floor area so that, collectively, the cameras are able to view substantially all of the floor area; providing livestock in the livestock shed on the floor area; providing a controller operatively connected to the lights and to the cameras; the controller receiving and analysing signals from the cameras; the controller controlling at least one of the lights to adjust illumination provided to the floor area by said at least one of the lights in a manner dependent on the signals from the cameras, wherein said adjustment of the illumination comprises adjusting a wavelength spectrum of the illumination.
A process for manufacturing a purified aromatic carboxylic acid comprising: contacting crude aromatic carboxylic acid with hydrogen in the presence of a catalyst in a hydrogenation reactor to form a purified aromatic carboxylic acid; separating a vapor effluent from the purified aromatic carboxylic acid; scrubbing the vapor effluent to form a scrubber effluent; treating the scrubber effluent to form a gaseous treated scrubber effluent and a liquid treated scrubber effluent; and removing at least a portion of organic impurities from the liquid treated scrubber effluent. contacting crude aromatic carboxylic acid with hydrogen in the presence of a catalyst in a hydrogenation reactor to form a purified aromatic carboxylic acid; separating a vapor effluent from the purified aromatic carboxylic acid; scrubbing the vapor effluent to form a scrubber effluent; treating the scrubber effluent to form a gaseous treated scrubber effluent and a liquid treated scrubber effluent; and removing at least a portion of organic impurities from the liquid treated scrubber effluent.
A system for multi-chassis interconnection, comprising at least three chassis (401, 402, 403, 404, 405, 406), wherein: each of the at least three chassis comprises a first switch fabric unit and a second SFU; the first SFU in a first chassis of the at least three chassis is connected to the first SFU in each of the at least three chassis except the first chassis (402, 403, 404, 405, 406); the second SFU in a second chassis of the at least three chassis is connected to the second SFU in each of the at least three chassis expect the second chassis (401, 403, 404, 405, 406); wherein the system comprises a level-1 network (401, 402, 403, 404, 405, 406), the level-1 network comprises the at least three chassis, and the first chassis and the second chassis in the at least three chassis are main chassis of the level-1 network; the system further comprises a level-2 network, and the level-2 network comprises at least three chassis (407, 408, 409, 410) other than the chassis of the level-1 network; each chassis of the at least three chassis in the level-2 network comprises a first SFU and a second SFU; and two chassis in the level-1 network except the main chassis in the level-1 network serve as a first main chassis and a second main chassis of the level-2 network; the first SFU in the first main chassis of the level-2 network is connected to the first SFU in each of the at least three chassis of the level-2 network (407, 408, 409, 410); and the second SFU in the second main chassis of the level-2 network is connected to the second SFU in each of the at least three chassis of the level-2 network (407, 408, 409, 410). each of the at least three chassis comprises a first switch fabric unit and a second SFU; the first SFU in a first chassis of the at least three chassis is connected to the first SFU in each of the at least three chassis except the first chassis (402, 403, 404, 405, 406); the second SFU in a second chassis of the at least three chassis is connected to the second SFU in each of the at least three chassis expect the second chassis (401, 403, 404, 405, 406); wherein the system comprises a level-1 network (401, 402, 403, 404, 405, 406), the level-1 network comprises the at least three chassis, and the first chassis and the second chassis in the at least three chassis are main chassis of the level-1 network; the system further comprises a level-2 network, and the level-2 network comprises at least three chassis (407, 408, 409, 410) other than the chassis of the level-1 network; each chassis of the at least three chassis in the level-2 network comprises a first SFU and a second SFU; and two chassis in the level-1 network except the main chassis in the level-1 network serve as a first main chassis and a second main chassis of the level-2 network; the first SFU in the first main chassis of the level-2 network is connected to the first SFU in each of the at least three chassis of the level-2 network (407, 408, 409, 410); and the second SFU in the second main chassis of the level-2 network is connected to the second SFU in each of the at least three chassis of the level-2 network (407, 408, 409, 410).
A liquid crystal display device with a built-in touch screen comprising: a substrate having a pixel region; a thin film transistor formed in the pixel region, the thin film transistor having a data electrode; a first passivation layer formed on the thin film transistor; a first contact hole formed through a portion of the first passivation layer to expose the data electrode; a common electrode formed on at least one portion of the first passivation layer, the common electrode operable to sense touch; a contact electrode formed inside the first contact hole, wherein the contact electrode is electrically insulated from the common electrode; a conductive line formed on the common electrode; a conductive layer formed on the contact electrode, wherein the conductive layer is electrically insulated from the conductive line; a second passivation layer formed on the common electrode, the conductive line, the contact electrode and the conductive layer; a second contact hole formed through a portion of the second passivation layer to expose the conductive layer; and a pixel electrode formed on the second passivation layer and inside the second contact hole, wherein the data electrode and the pixel electrode are electrically connected to each other via the contact electrode and the conductive layer. a substrate having a pixel region; a thin film transistor formed in the pixel region, the thin film transistor having a data electrode; a first passivation layer formed on the thin film transistor; a first contact hole formed through a portion of the first passivation layer to expose the data electrode; a common electrode formed on at least one portion of the first passivation layer, the common electrode operable to sense touch; a contact electrode formed inside the first contact hole, wherein the contact electrode is electrically insulated from the common electrode; a conductive line formed on the common electrode; a conductive layer formed on the contact electrode, wherein the conductive layer is electrically insulated from the conductive line; a second passivation layer formed on the common electrode, the conductive line, the contact electrode and the conductive layer; a second contact hole formed through a portion of the second passivation layer to expose the conductive layer; and a pixel electrode formed on the second passivation layer and inside the second contact hole, wherein the data electrode and the pixel electrode are electrically connected to each other via the contact electrode and the conductive layer.
A sensor for measuring a concentration of fluid-soluble gas, comprising: a housing which is covered by a selective permeable membrane and filled with a sensor fluid; at least two electrodes (10, 20) arranged within the housing, said electrodes (10, 20) being covered by the sensor fluid at at least one detection site; and an ion-balancing means arranged within the housing and being spaced apart from the detection site of the electrodes (10, 20) and in contact with the sensor fluid for removing polluting ions from the sensor fluid. a housing which is covered by a selective permeable membrane and filled with a sensor fluid; at least two electrodes (10, 20) arranged within the housing, said electrodes (10, 20) being covered by the sensor fluid at at least one detection site; and an ion-balancing means arranged within the housing and being spaced apart from the detection site of the electrodes (10, 20) and in contact with the sensor fluid for removing polluting ions from the sensor fluid.
A microbial oil which is a crude oil obtained by culturing a microbe of the genus Mortierella in a culture medium and recovering lipid from the biomass, the oil comprising dihomo-γ-linolenic acid as a constituent fatty acid and having a triglyceride content of greater than or equal to 70% by weight and a weight ratio of arachidonic acid relative to dihomo-γ-linolenic acid (arachidonic acid/dihomo-γ-linolenic acid) of less than 1/15.
An electrochemical device, comprising a first part and a second part, said first part comprising: - a first electrode and a second electrode adapted for providing a galvanic cell when said first and second electrode are exposed to an external fluid, said fluid constituting an electrolyte, - one or more electrochemical systems; said galvanic cell adapted to power, when in operation, said one or more electrochemical systems; said second part comprising a boost converter adapted for amplyfing a potential generated between said first electrode and said second electrode. - a first electrode and a second electrode adapted for providing a galvanic cell when - one or more electrochemical systems;
Deflecting device (1, 2) for deflecting a conveyed sheet (10a, 10b, 10c), comprising: - a guiding assembly having an inlet for receiving a conveyed sheet (10a, 10b, 10c) from an upstream section of a main conveying path, a primary outlet for discharging a conveyed sheet (10a, 10c) onto a downstream section of a main conveying path, a secondary outlet for discharging a conveyed sheet onto an initial section of a side conveying path, and a passing area for passing a conveyed sheet (10a, 10c) from the inlet towards the primary outlet; and - a deflector for deflecting a conveyed sheet towards the secondary outlet, movable into a receiving position for receiving a leading edge of a conveyed sheet inside the passing area and movable into a discharge position for discharging a leading edge of a conveyed sheet towards the secondary outlet, wherein the deflector defines a curved trajectory for a conveyed sheet deflected towards the secondary outlet in the discharge position, wherein one side of the curved trajectory faces the primary outlet, characterised in that a functional portion of the deflector is configured to be inserted into the passing area on the one side of the curved trajectory when the deflector moves into the receiving position, and to be retracted from the passing area on the one side of the curved trajectory when the deflector moves out of the discharge position. - a guiding assembly having an inlet for receiving a conveyed sheet (10a, 10b, 10c) from an upstream section of a main conveying path, a primary outlet for discharging a conveyed sheet (10a, 10c) onto a downstream section of a main conveying path, a secondary outlet for discharging a conveyed sheet onto an initial section of a side conveying path, and a passing area for passing a conveyed sheet (10a, 10c) from the inlet towards the primary outlet; and - a deflector for deflecting a conveyed sheet towards the secondary outlet, movable into a receiving position for receiving a leading edge of a conveyed sheet inside the passing area and movable into a discharge position for discharging a leading edge of a conveyed sheet towards the secondary outlet, wherein the deflector defines a curved trajectory for a conveyed sheet deflected towards the secondary outlet in the discharge position, wherein one side of the curved trajectory faces the primary outlet,
An apparatus for wireless communication, comprising: a first receiver (230a, 330a) configured to receive a first downlink signal from a first wireless system of a first radio access technology, RAT; a second receiver (230z, 330c) configured to receive a second downlink signal from a second wireless system of a second RAT different from the first RAT, the first and second receivers configured to operate concurrently; a local oscillator, LO, controller configured to select a first divider ratio and a second divider ratio, the second divider ratio being different from the first divider ratio; a first LO generator (250, 350) configured to generate a first LO signal at a first frequency for the first receiver based on the first divider ratio; and a second LO generator (270, 370) configured to generate a second LO signal at a second frequency for the second receiver based on the second divider ratio. a first receiver (230a, 330a) configured to receive a first downlink signal from a first wireless system of a first radio access technology, RAT; a second receiver (230z, 330c) configured to receive a second downlink signal from a second wireless system of a second RAT different from the first RAT, the first and second receivers configured to operate concurrently; a local oscillator, LO, controller configured to select a first divider ratio and a second divider ratio, the second divider ratio being different from the first divider ratio; a first LO generator (250, 350) configured to generate a first LO signal at a first frequency for the first receiver based on the first divider ratio; and a second LO generator (270, 370) configured to generate a second LO signal at a second frequency for the second receiver based on the second divider ratio.
A method for controlling and regulating an internal combustion engine, in which the rail pressure (pCR) is regulated via a first pressure adjusting member in a rail pressure control loop, wherein a rail pressure disturbance value (VDRV) is generated in order to influence the rail pressure (pCR) via a pressure regulating valve on the high pressure side as second pressure adjusting member, via which fuel is discharged from the rail into a fuel tank, wherein the rail pressure disturbance value (VDRV) is calculated using a corrected target volume flow (Vk) of the pressure regulating valve, wherein the corrected target volume flow (Vk) is calculated from a static target volume flow (Vs) and a dynamic target volume flow (Vd), wherein the dynamic target volume flow (Vd) of the pressure regulating valve is calculated via a dynamic correction as a function of a target rail pressure (pCR) and of an actual rail pressure (pCR), characterised in that a suction throttle on the low pressure side is used as first pressure adjusting member, and that the dynamic target volume flow (Vd) is calculated in that a resulting control deviation (epRES) of the rail pressure (pCR) is calculated and in that, if a resulting control deviation (epRES) is smaller than zero (epRES<0), the dynamic target volume flow (Vd) is set to the value of zero (Vd =0)) or if a resulting control deviation (epRES) is greater than/equal to zero (epRES≥0), the dynamic target volume flow (Vd) is set to the value of the product of resulting control deviation (epRES) and a factor (f), and wherein the resulting control deviation (epRES) is calculated in that a control deviation (ep) of the rail pressure (pCR) is calculated from the difference of target rail pressure (pCR) and actual rail pressure (pCR), in that a limited control deviation (epLIM) is calculated from the target rail pressure (pCR) via a characteristic curve and in that the resulting control deviation (epRes) is calculated as the difference of the limited control deviation (epLIM) and the control deviation (ep).
Device hood, in particular for a heat pump, which extends in an axial direction and has a first and a second hood part (10, 10a, 10b), wherein, in an assembled state, the hood parts (10a, 10b) abut against one another at separating edges and are able to be pulled apart in a direction of connection perpendicular to the axial direction, wherein a releasable locking means having at least one rotatable locking element is arranged for fixing the hood parts (10a, 10b) to one another in the assembled state, characterized in that the locking element is able to be transferred in a reversible manner between an open and a closed position by rotation about an axis of rotation, and in that, in the open position, the hood parts (10a, 10b) are able to be pulled apart, in that the hood parts (10a, 10b) each have a groove which is accessible via the separating edge, wherein the grooves form a common guide groove for guiding the locking element during the transfer between the open and the closed state, in that the locking element has an abutment web which is guided in the guide groove and which extends about the axis of rotation, and in that the guide groove is formed only sectionally in one of the hood parts (10a, 10b) and is interrupted into two part-sections (20a, 20b) and forms at least one stop for the abutment web.
Absorber tube having a central metal tube and having a glass sleeve tube surrounding the central metal tube, wherein a glass-metal transition element is arranged at at least one end (5a,b) of the glass sleeve tube, wherein the metal tube and the glass-metal transition element are connected to one another by means of at least one expansion compensation device so that they can move relative to one another in the longitudinal direction, wherein the at least one expansion compensation device is arranged at least partially in an annular space between the metal tube and the glass-metal transition element, wherein an inner end of the at least one expansion compensation device is attached to a connection element which is connected to the glass-metal transition element, and an outer end of the expansion compensation device is attached to the metal tube, wherein an annular space section of the annular space is formed between the glass-metal transition element and the connection element, and wherein the connection element and the at least one expansion compensation device have a circular end face as seen in the axial direction, characterized in that at least one shielding device is arranged at at least one end (1a,b) of the absorber tube, in the annular space, which shielding device has a first washer-shaped section which is arranged in front of and spaced apart from the end face in the axial direction, and covers at least the connection region of the connection element and the inner end of the expansion compensation device.
A lubricating oil composition comprising: a base oil; and in the range of from 0.05 to 0.5% by mass of coated particles made of nanoparticles and phosphonic acid coating at least a portion of the surface of the nanoparticles, wherein the surface coverage of the coated particles by phosphonic acid is 10% or more, as calculated using an elemental analysis of the coated particles and the area of the surface occupied by phosphonic acid coating, and wherein the nanoparticles are a metal oxide.
Pressure equalizer for a baby bottle comprising - a hollow element having a cup-like section and a tube section that grade seamlessly one into the other, and - a sealing element having an upper edge with a first diameter and a centre part with a second diameter, the cup-like section of the hollow element being accommodated with its upper edge in the second inside diameter of the centre part of the sealing element, characterized in that at least the hollow element is designed to be disassembled into at least two hollow element parts (101a, 101b) in its longitudinal axis. - a hollow element having a cup-like section and a tube section that grade seamlessly one into the other, and - a sealing element having an upper edge with a first diameter and a centre part with a second diameter, the cup-like section of the hollow element being accommodated with its upper edge in the second inside diameter of the centre part of the sealing element, characterized in that at least the hollow element is designed to be disassembled into at least two hollow element parts (101a, 101b) in its longitudinal axis.