mhurhangee/ep-ind-claims huggingface dataset:
Device for plasma-treatment of substrates comprising a vacuum chamber with a confinement enclosure having a treatment zone and presenting a transport direction along which substrates to be treated are to be moved through the treatment zone, said treatment zone being delimited in a direction transversal to said transport direction by lateral walls of the confinement enclosure, at least one of said lateral walls having an aperture for allowing plasma to enter the treatment zone, wherein said aperture connects to a plasma source external to said treatment zone such that plasma generated by the plasma source can enter the treatment zone through said aperture, characterised in that said at least one wall having said aperture presents means for generating a multipolar magnetic cusp field extending along this wall, wherein this multipolar magnetic cusp field extends at least partially around said aperture and adjacent to this aperture for forming a plasma diffuser panel.
Steering knuckle for a motor vehicle axle, comprising a fixed support element and a moving element carrying a spindle, intended to support a wheel of the motor vehicle, the fixed support element comprising a first swivel joint and a second swivel joint, the moving element being articulated with the fixed support element by said first swivel joint, characterized in that the moving element comprises a third swivel joint linked by a connection member to the second swivel joint of the fixed support element, the connection member of the swivel joints being arranged so as to maintain a constant distance between the second and the third swivel joint; the moving element of the steering knuckle and the fixed support element being linked by an elastic member damping a relative movement between the moving element and the fixed support element; and the elastic member being disposed between the first swivel joint on the one hand and the spindle on the other hand.
Internal combustion engine, notably for a motor vehicle, comprising at least one partial low-pressure exhaust gas recirculation circuit and a device for regulating the air consumption of the engine with a first calculator of a first fresh air flow-rate setpoint value (Q air_cons1) of the engine, characterized in that the regulation device further comprises a second fresh air flow-rate setpoint calculator configured to generate, from a temperature value (T EGR_BP) measured by a temperature sensor arranged on a low-pressure exhaust gas recirculation line and from the first fresh air flow-rate setpoint (Q air_cons1), a corrected value (Q air_cons2) of the fresh air flow-rate setpoint and in that it comprises a comparator capable of delivering an uprated fresh air flow-rate setpoint value corresponding to the highest value out of the first fresh air flow-rate setpoint (Q air_cons1) and the corrected fresh air flow-rate setpoint value (Q air_cons2), the regulation device comprising a second regulator configured to calculate, from the uprated fresh air flow-rate setpoint value (Q cons), a position setpoint (β BP, γ echap) of at least one gas flow-rate regulation device (19, 22) of the gas circuit of the engine.
A combustion chamber for use in an engine, the combustion chamber comprising: - a combustion space; - a combustion space wall delimiting the combustion space; - a plurality of cooling channel webs extending from a surface of the combustion space wall which faces away from the combustion space and separating mutually adjacent cooling channels from one another, the cooling channel webs each being provided with a projection extending from an end face of the cooling channel webs which faces away from the combustion space and extends substantially parallel to the surface of the combustion space wall, wherein the projection of a cooling channel web in a direction parallel to the suface facing away from the combustion space and perpendicular to a longitudinal axis of the cooling channnels adjacent to the respective cooling channel web has a reduced cross-section compared to the cooling channel web and extends centrally from the end face of the cooling channel web; and - a plurality of cover elements, each cover element extending along a longitudinal axis of a cooling channel delimited by two mutually adjacent cooling channel webs between the projections of the mutually adjacent cooling channel webs, characterized in that each cover element is form-fittingly connected to the projections of the two mutually adjacent cooling channel webs in order to cover the cooling channel. - a combustion space; - a combustion space wall delimiting the combustion space; - a plurality of cooling channel webs extending from a surface of the combustion space wall which faces away from the combustion space and separating mutually adjacent cooling channels from one another, the cooling channel webs each being provided with a projection extending from an end face of the cooling channel webs which faces away from the combustion space and extends substantially parallel to the surface of the combustion space wall, wherein the projection of a cooling channel web in a direction parallel to the suface facing away from the combustion space and perpendicular to a longitudinal axis of the cooling channnels adjacent to the respective cooling channel web has a reduced cross-section compared to the cooling channel web and extends centrally from the end face of the cooling channel web; and - a plurality of cover elements, each cover element extending along a longitudinal axis of a cooling channel delimited by two mutually adjacent cooling channel webs between the projections of the mutually adjacent cooling channel webs, characterized in that each cover element is form-fittingly connected to the projections of the two mutually adjacent cooling channel webs in order to cover the cooling channel.
A method of measuring GlycA, that is, an NMR biomarker derived from a measure of composite NMR signals from carbohydrate portions of acute phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties, comprising: electronically obtaining a composite NMR spectrum of a fitting region of a blood plasma or serum biosample of a subject; electronically deconvolving the composite NMR spectrum using a defined deconvolution model with high density lipoprotein components, low density lipoprotein components, very low density (VLDL)/chylomicron components, a protein signal component for protein having a density greater than 1.21 g/L, and a plurality of curve fit functions associated with at least a GlycA peak region; and electronically generating a measure of GlycA using the curve fit functions, wherein the GlycA NMR biomarker is derived from NMR signals of the protons of N-acetylglucosamine and/or N-acetylgalactosamine methyl groups, and wherein the GlycA peak region is centered at 2.00 ppm and the fitting region extends from 1.845 ppm to 2.080 ppm with the biosample at 47 °C ± 0.2 °C in an NMR flow probe of an NMR spectrometer. electronically obtaining a composite NMR spectrum of a fitting region of a blood plasma or serum biosample of a subject; electronically deconvolving the composite NMR spectrum using a defined deconvolution model with high density lipoprotein components, low density lipoprotein components, very low density (VLDL)/chylomicron components, a protein signal component for protein having a density greater than 1.21 g/L, and a plurality of curve fit functions associated with at least a GlycA peak region; and electronically generating a measure of GlycA using the curve fit functions, wherein the GlycA NMR biomarker is derived from NMR signals of the protons of N-acetylglucosamine and/or N-acetylgalactosamine methyl groups, and wherein the GlycA peak region is centered at 2.00 ppm and the fitting region extends from 1.845 ppm to 2.080 ppm with the biosample at 47 °C ± 0.2 °C in an NMR flow probe of an NMR spectrometer.
A fluid conveyance system connector, comprising: a body; a tube positioned within the body through which a conveyed fluid flows; and a moveable adapter (16a,b) received in a first space (18a,b) between the body and the tube, the moveable adapter (16a, b) sealingly cooperates with the body and tube to define outer and inner variable volume chambers (26/126a, b) and (28/128a,b), the inner chamber (26/126b, 28/128b) communicates with one of an external environment or the conveyed fluid through a first port (30, 132) and the outer chamber (26/126a, 28/128a) communicates with the other of the conveyed fluid or the external environment through a second port (32, 130) such that the pressure in the inner chamber (26/126b, 28/128b) is the pressure exhibited by the external environment or the conveyed fluid and the pressure in the outer chamber (26/126a, 28/128a) is the pressure of the other of the conveyed fluid or the external environment, wherein a differential pressure comprising a difference between the pressure of the conveyed fluid and the pressure exhibited by the external environment applies an inwardly or outwardly directed force to the moveable adapter; characterized in that a second moveable adapter (16a,b) is received in a second space (18a,b) between the body and the tube. a body; a tube positioned within the body through which a conveyed fluid flows; and a moveable adapter (16a,b) received in a first space (18a,b) between the body and the tube, the moveable adapter (16a, b) sealingly cooperates with the body and tube to define outer and inner variable volume chambers (26/126a, b) and (28/128a,b), the inner chamber (26/126b, 28/128b) communicates with one of an external environment or the conveyed fluid through a first port (30, 132) and the outer chamber (26/126a, 28/128a) communicates with the other of the conveyed fluid or the external environment through a second port (32, 130) such that the pressure in the inner chamber (26/126b, 28/128b) is the pressure exhibited by the external environment or the conveyed fluid and the pressure in the outer chamber (26/126a, 28/128a) is the pressure of the other of the conveyed fluid or the external environment, wherein a differential pressure comprising a difference between the pressure of the conveyed fluid and the pressure exhibited by the external environment applies an inwardly or outwardly directed force to the moveable adapter; characterized in that a second moveable adapter (16a,b) is received in a second space (18a,b) between the body and the tube.
A computer server rack, the computer server rack having a control unit, a first grid power source, a second grid power source, and a battery backup system, BBS, wherein the computer server rack further comprises a first power supply unit and a second power supply unit in each of multiple servers in the rack, each of said first power supply units is coupled to the first grid power source and each of said second power supply units is coupled to the BBS and to the second grid power source, and wherein each server of the multiple servers in the rack is configured to balance a power demand from the first power supply unit and a power demand from the second power supply unit, the control unit adapted to: detect that a power demand by the multiple servers in the rack exceeds a specified maximum power limit for the rack by twice a first determined amount; set a BBS output power to the first determined amount; set an output power from the second grid power source to one half the maximum power limit minus the first determined amount; and set the BBS output power to twice the first determined amount and set an output from the first grid power source to one half the maximum power limit plus the first determined amount. detect that a power demand by the multiple servers in the rack exceeds a specified maximum power limit for the rack by twice a first determined amount; set a BBS output power to the first determined amount; set an output power from the second grid power source to one half the maximum power limit minus the first determined amount; and set the BBS output power to twice the first determined amount and set an output from the first grid power source to one half the maximum power limit plus the first determined amount.
Method for supporting network based mobility for a mobile terminal in an, IMS, IP Multimedia Subsystem architecture, wherein said mobile terminal is connected to a femto cell or to a macro cell - source cell - and wherein a handover of an actual session of said mobile terminal is performed to another femto cell or macro cell - target cell -, wherein said femto cells and said macro cells are equipped with or are connected to an, eMSC-server, Mobile Switching Center Server enhanced for IMS Centralized Services function, and wherein said source cell's eMSC-server function hosts a source user agent and said target cell's eMSC-server function hosts a target user agent, and wherein said source user agent contacts said target user agent directly or indirectly prior to executing the actual handover, and wherein said source user agent prepares said target user agent together with the corresponding access network by exchanging handover related information, characterized in that said target cell's eMSC-server function, upon receiving handover request from an application server hosted in said IMS architecture or from said source cell's eMSC-server function, processes said handover request by downloading the user profile of the subscriber of said mobile terminal and registering said subscriber at IMS.
A method for producing allulose crystals, wherein the method comprises: a) cooling and agitating a first admixture comprised of a first portion of allulose syrup and a first portion of allulose crystals and initiating crystallization of allulose dissolved in the allulose syrup, thereby forming a first massecuite comprising allulose crystals and a first mother liquor containing residual dissolved allulose, the cooling and agitating being continued until a first preselected target yield of allulose crystals is achieved; b) separating the first massecuite into a first portion and a second portion; c) combining a second portion of allulose syrup with the second portion of the first massecuite to form a second admixture; and d) cooling and agitating the second admixture and initiating crystallization of allulose dissolved in the second portion of allulose syrup, thereby forming a second massecuite comprising allulose crystals and a second mother liquor containing residual dissolved allulose, the cooling and agitating being continued until a second preselected target yield of allulose crystals is achieved. a) cooling and agitating a first admixture comprised of a first portion of allulose syrup and a first portion of allulose crystals and initiating crystallization of allulose dissolved in the allulose syrup, thereby forming a first massecuite comprising allulose crystals and a first mother liquor containing residual dissolved allulose, the cooling and agitating being continued until a first preselected target yield of allulose crystals is achieved; b) separating the first massecuite into a first portion and a second portion; c) combining a second portion of allulose syrup with the second portion of the first massecuite to form a second admixture; and d) cooling and agitating the second admixture and initiating crystallization of allulose dissolved in the second portion of allulose syrup, thereby forming a second massecuite comprising allulose crystals and a second mother liquor containing residual dissolved allulose, the cooling and agitating being continued until a second preselected target yield of allulose crystals is achieved.
Hand-held power tool comprising an integrated tool or a tool holder for receiving a tool, an electric motor for driving the tool or the tool holder, a guide into which a battery pack for supplying the electric motor with power can be inserted in a first direction and a contact holder in which several electrical contacts for contacting mating contacts of the battery pack are arranged, characterised in that at least one stranded wire connected to one of the electrical contacts has strands extending in a wave-like manner in the first direction adjacent to the electrical contact.
Method for evaluating a capacitance value of a proximity switch of a motor vehicle having a sensor electrode, wherein an evaluation process comprises the steps of: - Performing a charging process of the sensor electrode, wherein the sensor electrode is coupled to a charging circuit for a coupling time duration t K and decoupled from the charging circuit for a decoupling time duration t E in a plurality of coupling and decoupling cycles, wherein in a coupling and decoupling cycle an at least partial charging of the sensor electrode takes place during the coupling time duration t K, and whereby no charging of the sensor electrode takes place during the decoupling time duration t E, - Evaluating a parameter dependent on the capacitance value of the sensor electrode, the parameter being a voltage measured at a capacitor that accumulates charge or the parameter being a number of periods of charging and/or discharging until a switching threshold is exceeded by a voltage that is measured at the sensor electrode, wherein a first charging pulse duration t L,1, which is composed of a first coupling time duration t K,1 and a first decoupling time duration t E,1, with t L,1 = t K,1 + t E,1, of a first coupling and decoupling cycle, and a second charging pulse duration t L,2, which is composed of a second coupling time duration t K,2 and a second decoupling time duration t E,2, with t L,2 = t K,2 + t E,2, of a second coupling and decoupling cycle which is immediately following the first coupling and decoupling cycle, differ from one another in a first pulse duration deviation Δt L,1. - Performing a charging process of the sensor electrode, wherein the sensor electrode is coupled to a charging circuit for a coupling time duration t K and decoupled from the charging circuit for a decoupling time duration t E in a plurality of coupling and decoupling cycles, wherein in a coupling and decoupling cycle an at least partial charging of the sensor electrode takes place during the coupling time duration t K, and whereby no charging of the sensor electrode takes place during the decoupling time duration t E, - Evaluating a parameter dependent on the capacitance value of the sensor electrode, the parameter being a voltage measured at a capacitor that accumulates charge or the parameter being a number of periods of charging and/or discharging until a switching threshold is exceeded by a voltage that is measured at the sensor electrode,
A system, comprising: a bus; a processor operably coupled to the bus; a memory operably coupled to the bus; a plurality of input/output (I/O) devices (110, 112, 114, 116, 118) operably coupled to the bus, each of the I/O devices having a set of control registers (111, 113, 115, 117, 119); and characterized by a first shared I/O unit operably coupled to the bus, the first shared I/O unit having a plurality of shared functions and configured to perform the shared functions, wherein the shared I/O functions are not included as functions on the I/O devices and the I/O devices and the processor interact with the first shared I/O unit to use one or more of the shared functions performed by the first shared I/O unit. a bus; a processor operably coupled to the bus; a memory operably coupled to the bus; a plurality of input/output (I/O) devices (110, 112, 114, 116, 118) operably coupled to the bus, each of the I/O devices having a set of control registers (111, 113, 115, 117, 119); and characterized by a first shared I/O unit operably coupled to the bus, the first shared I/O unit having a plurality of shared functions and configured to perform the shared functions, wherein the shared I/O functions are not included as functions on the I/O devices and the I/O devices and the processor interact with the first shared I/O unit to use one or more of the shared functions performed by the first shared I/O unit.
A system comprising: a floating device which is configured as at least one of an input device or an output device for a user interface; a base element for the floating device; and a magnetic system, wherein the system is configured to maintain the floating device in a balanced position above the base element in a first operational mode, and wherein the system is configured to locate the floating device in a docking position on a top side of the base element in a second operational mode, wherein locating the floating device in the docking position comprises exerting a force on the floating device so that it can be kept located in the docking position, wherein the system further comprises a fixing means configured for retaining or fixing the floating device to the base element in the docking position, wherein the fixing means comprises at least one of a mechanical fixing means having a mechanical click mechanism, and an electromechanical system, wherein the magnetic system is configured to pull the floating device from the balanced position into the docking position where it interacts with the mechanical click mechanism so that the floating device can be fixed in the docking position. a floating device which is configured as at least one of an input device or an output device for a user interface; a base element for the floating device; and a magnetic system, wherein the system is configured to maintain the floating device in a balanced position above the base element in a first operational mode, and wherein the system is configured to locate the floating device in a docking position on a top side of the base element in a second operational mode, wherein locating the floating device in the docking position comprises exerting a force on the floating device so that it can be kept located in the docking position, wherein the system further comprises a fixing means configured for retaining or fixing the floating device to the base element in the docking position, wherein the fixing means comprises at least one of a mechanical fixing means having a mechanical click mechanism, and an electromechanical system, wherein the magnetic system is configured to pull the floating device from the balanced position into the docking position where it interacts with the mechanical click mechanism so that the floating device can be fixed in the docking position.
Industrial truck comprising a control unit for controlling the steered wheel of the industrial truck, said steered wheel having a first and a second rotational direction, said control unit being adapted to receive an indication from the operator of the industrial truck for control of the rotational direction of the steered wheel and a steering angle of the steered wheel and to control the rotational direction and the steering angle of the steered wheel based on the received indication, where the truck is of the steer-by-wire type, characterized in that the control unit is adapted to analyse one single said indication for control of the rotational direction of the steered wheel and for control of the steered wheel to a predetermined steering angle, select one of at least two measures based on the analysed single indication, • where a first measure is to change the selected rotational direction, and • where a second measure is to change the selected rotational direction and in connection therewith to make sure that the steered wheel has been set at the predetermined steering angle; and generate and send a control instruction (150a, 150b) which indicates the selected measure, and in that the industrial truck further comprises input means for selecting the driving direction, said input means being coupled to the control unit and with the aid of which the operator can provide said indication, wherein the control unit is arranged so that actuation of a switch of the input means once leads to the first measure and actuation of the input means once and then rapidly repeating the actuation leads to the second measure. • where a first measure is to change the selected rotational direction, and • where a second measure is to change the selected rotational direction and in connection therewith to make sure that the steered wheel has been set at the predetermined steering angle; and