mhurhangee/ep-ind-claims huggingface dataset:
Process to produce a concentrated vegetable flavour comprising, a) preparing a composition comprising a vegetable, an oil and a yeast extract and/or yeast autolysate, b) intimately mixing the composition in an extruder at a temperature between 100°C and 160°C and a reaction time between 1 second and 1 week, sufficient for the concentrated vegetable flavour to develop, wherein the water content of the composition before or during step b) is between 1% and 8% w/w based on the total weight of the composition. a) preparing a composition comprising a vegetable, an oil and a yeast extract and/or yeast autolysate, b) intimately mixing the composition in an extruder at a temperature between 100°C and 160°C and a reaction time between 1 second and 1 week, sufficient for the concentrated vegetable flavour to develop, wherein the water content of the composition before or during step b) is between 1% and 8% w/w based on the total weight of the composition.
A lobe pump with a. a housing, having an inlet and an outlet for the medium to be pumped, b. at least one lobe, which is mounted in the housing so as to be drivable and rotatable and which has at least two conveying vanes provided with a contour, which lobe conveys the medium to be delivered from the inlet to the outlet, c. and with one sealing element per lobe, which is mounted on a sealing body and runs over the contour of the lobe during rotation of the lobe and performs an outward travel movement from a minimum diameter of the lobe to a maximum diameter of the lobe and an inward travel movement from the maximum diameter of the lobe to the minimum diameter of the lobe on different sides of the conveying vanes, wherein the distance which the sealing element covers on the inward travel side of the conveying vane during the inward travel movement is smaller than the distance on the outward travel side during the outward travel movement, characterized in that the contour on the outward travel side has a curvature without inflection point and the contour on the inward travel side has at least one inflection point. a. a housing, having an inlet and an outlet for the medium to be pumped, b. at least one lobe, which is mounted in the housing so as to be drivable and rotatable and which has at least two conveying vanes provided with a contour, which lobe conveys the medium to be delivered from the inlet to the outlet, c. and with one sealing element per lobe, which is mounted on a sealing body and runs over the contour of the lobe during rotation of the lobe and performs an outward travel movement from a minimum diameter of the lobe to a maximum diameter of the lobe and an inward travel movement from the maximum diameter of the lobe to the minimum diameter of the lobe on different sides of the conveying vanes, wherein the distance which the sealing element covers on the inward travel side of the conveying vane during the inward travel movement is smaller than the distance on the outward travel side during the outward travel movement, characterized in that the contour on the outward travel side has a curvature without inflection point and the contour on the inward travel side has at least one inflection point.
An article comprising a hydrophilic medical coating prepared by curing a coating formulation, the coating formulation comprising: (a) at least one multifunctional polymerizable compound according to formula wherein G is a residue of a hydrophilic polyfunctional compound having at least n functional groups and chosen from the group consisting of polyethers, polyesters, polyurethanes, polyepoxides, polyamides, poly(meth)acrylamides, poly(meth)acrylics, polyoxazolidones, polyvinyl alcohols, polyethylene imines, polypeptides and polysaccharides, or any combination of the above; wherein each R 1 and each R 2 independently represents hydrogen or a group selected from substituted and unsubstituted hydrocarbons which optionally contain one or more heteroatoms, and wherein n is an integer having a value of 2-8, and (b) at least one initiator, and wherein the article is a medical device or component. (a) at least one multifunctional polymerizable compound according to formula wherein G is a residue of a hydrophilic polyfunctional compound having at least n functional groups and chosen from the group consisting of polyethers, polyesters, polyurethanes, polyepoxides, polyamides, poly(meth)acrylamides, poly(meth)acrylics, polyoxazolidones, polyvinyl alcohols, polyethylene imines, polypeptides and polysaccharides, or any combination of the above; wherein each R 1 and each R 2 independently represents hydrogen or a group selected from substituted and unsubstituted hydrocarbons which optionally contain one or more heteroatoms, and wherein n is an integer having a value of 2-8, and (b) at least one initiator, and
A method in a Digital Subscriber Line, DSL, system for estimating a transmission property of a telecommunications transmission line comprising the step of Making a first frequency domain reflectometry Single Ended Line Testing, SELT, measurement which comprises the steps of sending a first signal to the line; receiving a resulting, second signal from the line, and; estimating a property of the line in dependence of the relationship between the first signal and the second signal, characterized in that the first SELT measurement is made in a first stop band and in accordance or substantially in accordance with the PSD mask, meaning that the first signal is sent in a first stop band of a DSL band plan, the first signal having a power spectral density, PSD, in accordance, or substantially in accordance with a PSD mask associated with the band plan and applicable to a particular setting where the sending of the first signal takes place, the method comprising the further step of making a second frequency domain reflectometry SELT measurement in a first pass band adjacent to the first stop band, the measurement comprising sending a signal to the line and wherein the results of the first and second SELT measurements are concatenated to form a single measurement result over a contiguous frequency range comprising the whole, or at least parts of the frequency ranges of the first and second measurements and wherein the first and second SELT measurements are made in xDSL transceiver unit at the operator end of the loop, xTU-O, or in a xDSL transceiver unit at the remote end of the loop, xTU-R. and wherein the power of the signal sent for the second SELT measurement is several orders of magnitude greater than the power of the signal sent for the first SELT measurement.
Energy recovery system of the type that use one or more bicycles to drive energy generation means, connected to an alternating current electric mains, characterized in that as energy generation means the bicycles each incorporate asynchronous slip-ring motor, in which the stator is connected directly to the electric mains, while the shaft of the motor and consequently its rotor are connected by the respective transmission to the bottom bracket of the bicycle, wherein the rotor, specifically the slip-ring motor, is connected to a voltage-controlled variable frequency oscillator that varies around the frequency of the mains, which enables the motor's electrical slip to be varied, irrespective of the mechanical speed and consequently of the power generated by the motor; wherein the energy recovery system further comprises a microcontroller which includes devices (10,11,12) for measuring the voltage and current vectors and for measuring the rotational speed, in order to obtain the braking torque, as well as means of comparison of the obtained braking torque with a setpoint torque provided by a potentiometer, in such a way that through a microcontroller's respective programming firmware an error signal is generated and applied to the variable frequency oscillator to vary the frequency of the voltage injected in the slip-ring motor so that the braking torque is equal to the one specified by the setpoint; with the particular feature that a circuit of the microcontroller is complemented with an additional circuit to control the generated energy, both the excess energy generated as well as regulation of the reactive energy, in which a second microcontroller participates, provided with means for measuring the mains current through a further device and for measuring voltage through another device and means of calculation of the balance of generated power, said second microcontroller having a switched connection to the mains of a switched resistive load of excess energy consumption in the mains in a way that the balance of generated power is always zero, as well as a switched capacitor which meets the reactive energy needs of the mains.
A tension member tension monitoring arrangement for measuring tension member tension of elevator tension members of a bundle of tension members, the elevator comprising an elevator car (102, 202, 302) suspended by the tension members, such as ropes or belts, of the bundle of tension members (103, 203, 303), a termination at one end of a tension member and a mounting plate for attaching the termination relative to the hoistway (101, 301), counterweight, and/or the elevator car (102, 202, 302), wherein the tension member tension monitoring arrangement comprises at least one capacitive pressure sensor (120, 220, 320, 420, 520) arranged in connection with a tension member termination, wherein the arrangement further comprises a control unit connected to the at least one sensor (120, 220, 320, 420, 520), wherein the at least one sensor (120, 220, 320, 420, 520) is configured to sense the tension member forces of the tension members of the bundle of tension members (103, 203, 303) attached to the tension member termination and generate a signal relating to one or more tension members of the tension member bundle readable and/or measurable by the control unit and proportional to the sensed load or force, wherein the arrangement comprises one sensor structure comprising multiple capacitive pressure sensor elements in the sensor structure wherein each sensor element is arranged in connection with an individual tension member termination. wherein the tension member tension monitoring arrangement comprises at least one capacitive pressure sensor (120, 220, 320, 420, 520) arranged in connection with a tension member termination, wherein the arrangement further comprises a control unit connected to the at least one sensor (120, 220, 320, 420, 520), wherein the at least one sensor (120, 220, 320, 420, 520) is configured to sense the tension member forces of the tension members of the bundle of tension members (103, 203, 303) attached to the tension member termination and generate a signal relating to one or more tension members of the tension member bundle readable and/or measurable by the control unit and proportional to the sensed load or force, wherein the arrangement comprises one sensor structure comprising multiple capacitive pressure sensor elements in the sensor structure wherein each sensor element is arranged in connection with an individual tension member termination.
A fluid cartridge system for dispensing a first fluid and a second fluid respectively from a first cartridge (16; 216; 416) and a second cartridge (18; 218; 418) via a dispensing applicator, the fluid cartridge system comprising; a first cartridge body (42; 242; 442) having a first chamber (50; 250; 450) for containing the first fluid; a second cartridge body (52; 252; 452) having a second chamber (60; 260; 460) for containing the second fluid, wherein said first cartridge body (42; 242; 442) is configured to secure against the second cartridge body (52; 252; 452) in a side-by-side configuration; a first neck portion (44; 244; 444) projecting from said first cartridge body (42; 242; 442) and including a first outlet (48; 248; 448) communicating with said first chamber (50; 250; 450) for discharging the first fluid therefrom, said first neck portion (44; 244; 444) configured to operatively connect to a second neck portion (54; 254; 454) projecting from said second cartridge body (52; 252; 452) and including a second outlet (58; 258; 458) communicating with said second chamber (60; 260; 460) for discharging the second fluid therefrom to form a neck (20; 220; 420); and a first closure (28; 228; 428) including a first plug (62; 262; 462) projecting therefrom, said first plug (62; 262; 462) received within said first outlet (48; 248; 448) to fluidly seal said first outlet (48; 248; 448) of said first cartridge (16; 216; 416), said first closure (28; 228; 428) having a first closure coupling element (66; 266; 466) configured to operatively connect to a second closure coupling element (68; 268; 468) of a second closure (30; 230; 430) received within a second outlet (58; 258; 458) of the second cartridge (18; 218; 418) to form a closure assembly (32; 232; 432) for being collectively removed by an operator, characterized in that the first cartridge body (42; 242; 442) and the first closure (28; 228; 428) are configured such that securing the first cartridge body (42; 242; 442) to the second cartridge body (52; 252; 452) simultaneously operatively connects the first closure (28; 228; 428) to the second closure (30; 230; 430) to form said closure assembly (32; 232; 432).
Method for monitoring at least one battery, wherein measured variables from at least one of the at least one battery are evaluated by at least one data processing device (324, 326), wherein at least one monitoring operation is performed for signals interchanged via a communication link (316, 318, 320) between the at least one battery and the at least one data processing device (324, 326), characterized in that redundant monitoring of at least some of the measured variables is effected and the redundant monitoring implements at least safety requirements in accordance with ASIL-A and ASIL-B.
An automotive lighting unit comprising: a substantially basin-shaped, rear body; a front half-shell placed in front of the mouth of the rear body; and at least one lighting assembly (4, 5) that emits light on command, and is located inside the rear body so as to be able to backlight a corresponding transparent or semi-transparent portion of the front half-shell; the lighting assembly (4, 5) comprising at least one light-guide body (6, 15, 20) made of photoconductive material, which is placed inside the rear body and is structured to channel, by total internal reflection and towards said transparent or semi-transparent portion of the front half-shell, the light that enters in the same light-guide body (6, 15, 20) through a light-incoupling end or sidewall (8, 17, 21) of the same light-guide body (6, 15, 20); the automotive lighting unit being characterised in that the lighting assembly (4, 5) additionally comprises: an active light deflector device (9, 16) which is placed inside the rear body, facing the light-incoupling end or sidewall (8, 17, 21) of said light-guide body (6, 15, 20); and an electrically-powered light source (10, 18) which is placed inside the rear body and emits, on command, a collimated light beam (r, l) towards the active light deflector device (9, 16); the active light deflector device (9, 16) including a MOEMS device (12, 24) and a control electronics (13, 25) adapted to drive said MOEMS device (12, 24), and being adapted to reflect/divert said collimated light beam (r, l) towards the light-incoupling end or sidewall (8, 17, 21) of said light-guide body (6, 15, 20), so that the collimated light beam (r, l) can enter into the light-guide body (6, 15, 20) and then travel inside the light-guide body (6, 15, 20) by total internal reflection.
A self-aligning coupling linkage for a drive train of a hair cutting appliance comprising a driving shaft and a non-aligning output shaft, said coupling linkage comprising a joint section comprising a first connector portion (58, 158) and a second connector portion (60, 160) that are arranged to engage one another for torque transmission, wherein the first connector portion and the second connector portion define a male connector (58, 158) comprising an external polygonal profile (62, 162), viewed in a cross-sectional plane perpendicular to a longitudinal axis, and a female connector (60, 160) comprising an internal engagement profile (64, 164), wherein the male connector (58, 158) and the female connector (60, 160) are arranged in a self-aligning fashion for angular offset compensation, characterized in that at least one of the male connector (58, 158) and the female connector (60, 160) is provided with at least one circumferentially arranged deflectable compensation element (100, 200) arranged to urge the male connector (58, 158) and the female connector (60, 160) towards an operating alignment.
A system for a brain-computer interface, comprising: a spike detection module arranged to detect at least one action potential generated by one or more neurons; a template matching module arranged to compare the at least one detected action potential with one or more predetermined spike templates; and a template building module configured to generate the one or more predetermined spike templates and arranged remotely from the spike detection module and the template matching module; wherein the spike detection module and the template matching module are arranged in an implanted device configured to transmit the at least one detected action potential and receive the one or more predetermined spike templates; and the template building module is arranged in a remote device configured to receive the at least one transmitted action potential and transmit the one or more predetermined spike templates; and wherein the spike detection module is implemented as an integrated circuit comprising: an amplification and signal filtering unit configured to amplify and filter one or more extracellular recordings; an analogue-digital conversion unit configured to convert the one or more extracellular recordings; and a spike detection unit configured to detect the at least one action potential within the one or more extracellular recordings. a spike detection module arranged to detect at least one action potential generated by one or more neurons; a template matching module arranged to compare the at least one detected action potential with one or more predetermined spike templates; and a template building module configured to generate the one or more predetermined spike templates and arranged remotely from the spike detection module and the template matching module; wherein the spike detection module and the template matching module are arranged in an implanted device configured to transmit the at least one detected action potential and receive the one or more predetermined spike templates; and the template building module is arranged in a remote device configured to receive the at least one transmitted action potential and transmit the one or more predetermined spike templates; and wherein the spike detection module is implemented as an integrated circuit comprising: an amplification and signal filtering unit configured to amplify and filter one or more extracellular recordings; an analogue-digital conversion unit configured to convert the one or more extracellular recordings; and a spike detection unit configured to detect the at least one action potential within the one or more extracellular recordings. an amplification and signal filtering unit configured to amplify and filter one or more extracellular recordings; an analogue-digital conversion unit configured to convert the one or more extracellular recordings; and a spike detection unit configured to detect the at least one action potential within the one or more extracellular recordings.
A method of a deep soil compacting from surface with the use of seismic dynamic compacting so-called seismic-compaction, with the use of sequences of seismic-vibrations of high power and variable parameters of vibrations depending on susceptibility of the medium to settlement and on limitations resulting from work safety, wherein the energy of a single stroke impulse on the soil surface is replaced by the superposition of a corresponding number of cycles of controlled lower energy sequences of vibrations of seismic frequencies within a range from several to several dozen hertz, sent to a stiff plate of any shape and size contacted with a subsoil, onto which a static force of a preload caused by a heavy weight M1 is applied, and simultaneously a dynamic load enforced by a periodic force Fw of defined parameters of vibration frequencies, amplitude and emission time is applied, always of a maximum value lower than the static load M1 x g wherein g being the gravitational acceleration, in order to maintain a permanent contact of the plate with the subsoil and the force always directed downward, also for accelerations of forcing greater than the gravitational acceleration, which provides accumulation of deformations under the plate and achievement of compacting and consolidation effect from subsequent cycles of vibrations irrespective of the technical system implementing the method from one point to another.
Apparatus for supercooling low-boiling liquefied gases, comprising a storage container for a low-boiling liquefied gas and an insulated container for receiving a cooling bath, which is fed from a partial stream of a low-boiling liquefied gas removed from the storage container that has been expanded to low pressure, and also comprising a device for drawing off the gas phase from the insulated container, and a device for controlling the liquid level in the cooling bath, wherein furthermore an outlet line (5, 9) flow-connected to the storage container is provided for the low-boiling liquefied gas to be supercooled and is flow-connected to a device for transferring heat from the low-boiling liquefied gas to be supercooled in the outlet line (5, 9) to the cooling bath, characterized in that, for the purpose of feeding the cooling bath, a plurality of supply lines (12, 13, 14, 15) that are flow-connected to the storage container and are each equipped with a shut-off valve (16, 17, 18, 19) open out into the insulated container, wherein each of the shut-off valves (16, 17, 18, 19) is operatively connected to a device for detecting the filling level of the cooling bath in such a way that a shut-off valve (16, 17, 18, 19) opens the respective supply line (12, 13, 14, 15) at a prescribed limit filling level when the filling level of the cooling bath falls below the limit filling level and closes it when the filling level of the cooling bath rises above the limit filling level, wherein for at least two supply lines a different limit filling level is prescribed.