mhurhangee/ep-ind-claims huggingface dataset:
Method for determining a time in a vehicle, said method having the following steps: - advancing a continuous measure of time implemented in a control module of the vehicle by means of an oscillator; - receiving a plurality of items of time information from in each case a time source outside the vehicle, wherein a respective time source degree of confidence is assigned to each time source, wherein a respective time source degree of confidence is indicative of a reliability of the respective time source; - determining the time on the basis of the time information, and - determining an overall degree of confidence assigned to the time on the basis of the time source degrees of confidence, - wherein the measure of time is updated by means of the determined time only when the overall degree of confidence of the time exceeds a predetermined threshold value; - wherein the time information is received from a combination of different devices selected from the following group: - infrastructure devices, in particular roadside units, - other vehicles, - special response vehicles, - back-end systems, - intelligent transport systems, - radio clocks, - public key infrastructure systems, satellites, - a mobile radio network. - advancing a continuous measure of time implemented in a control module of the vehicle by means of an oscillator; - receiving a plurality of items of time information from in each case a time source outside the vehicle, wherein a respective time source degree of confidence is assigned to each time source, wherein a respective time source degree of confidence is indicative of a reliability of the respective time source; - determining the time on the basis of the time information, and - determining an overall degree of confidence assigned to the time on the basis of the time source degrees of confidence, - wherein the measure of time is updated by means of the determined time only when the overall degree of confidence of the time exceeds a predetermined threshold value; - wherein the time information is received from a combination of different devices selected from the following group: - infrastructure devices, in particular roadside units, - other vehicles, - special response vehicles, - back-end systems, - intelligent transport systems, - radio clocks, - public key infrastructure systems, satellites, - a mobile radio network. - infrastructure devices, in particular roadside units, - other vehicles, - special response vehicles, - back-end systems, - intelligent transport systems, - radio clocks, - public key infrastructure systems, satellites, - a mobile radio network.
A Frustrated Total Internal Reflection system comprising: - a cartridge, - a light source, and - a detector, - the light source and the detector being arranged for Frustrated Total Internal Reflection detection such that the optical path of incoming light is chosen such that the condition of total internal reflection is fulfilled, - the cartridge for the Frustrated Total Internal Reflection system comprising a bottom portion with a well adapted to accommodate a sample, said well having a sensor surface, and a cover portion for closing said well, wherein said bottom portion is adapted for allowing light to enter along the first optical path, to be reflected at the sensor surface and to exit along a second optical path, wherein the cover portion consists of a flexible tape or flexible foil, and wherein the well contains a reagent or a combination of several reagents and/or label particles, wherein the reagent or the combination of several reagents and/or label particles is situated at specific binding spots of the sensor surface. - a cartridge, - a light source, and - a detector, - the light source and the detector being arranged for Frustrated Total Internal Reflection detection such that the optical path of incoming light is chosen such that the condition of total internal reflection is fulfilled, - the cartridge for the Frustrated Total Internal Reflection system comprising a bottom portion with a well adapted to accommodate a sample, said well having a sensor surface, and a cover portion for closing said well, wherein said bottom portion is adapted for allowing light to enter along the first optical path, to be reflected at the sensor surface and to exit along a second optical path, wherein the cover portion consists of a flexible tape or flexible foil, and wherein the well contains a reagent or a combination of several reagents and/or label particles, wherein the reagent or the combination of several reagents and/or label particles is situated at specific binding spots of the sensor surface.
Method for operating a delivery pump (18; 64) delivering a delivery liquid, which has a impeller and an electronically commutated electric motor for the rotational drive of the impeller, wherein the delivery pump is operable in a rotational speed range of the impeller between an upper rotational speed and a final first lower rotational speed (84; 108), comprising: - a first flow regulation range, in which the delivery pump (18; 64) is operated continually and the impeller is driven in a continually rotating manner; - a second flow regulation range, in which the delivery pump (18; 64) is operated intermittently and the impeller is driven in a pulsed rotating manner, wherein a pulse amplitude of the rotation is greater than a final second lower rotational speed (100; 110) and pause times with a rotational speed (n) of zero or at least approximately zero are between rotational speed pulses. - a third flow regulation range, in which the delivery pump (18; 64) is operated intermittently and the impeller is driven in a pulsed rotating manner, wherein a pulse amplitude of the rotation is at the second lower rotational speed (100; 110) and pause times with the rotational speed of zero or at least approximately zero are between rotational speed pulses. - a first flow regulation range, in which the delivery pump (18; 64) is operated continually and the impeller is driven in a continually rotating manner; - a second flow regulation range, in which the delivery pump (18; 64) is operated intermittently and the impeller is driven in a pulsed rotating manner, wherein a pulse amplitude of the rotation is greater than a final second lower rotational speed (100; 110) and pause times with a rotational speed (n) of zero or at least approximately zero are between rotational speed pulses. - a third flow regulation range, in which the delivery pump (18; 64) is operated intermittently and the impeller is driven in a pulsed rotating manner, wherein a pulse amplitude of the rotation is at the second lower rotational speed (100; 110) and pause times with the rotational speed of zero or at least approximately zero are between rotational speed pulses.
An operation method of a first base station for activating or deactivating packet duplication in a wireless communication system, the operating method comprising: transmitting, by a central unit, CU, of the first base station to a distributed unit, DU, of the first base station via F1 interface, a user equipment, UE, context message including information to activate or deactivate a dual connectivity, DC, based packet duplication for a data radio bearer, DRB; transmitting, to a second base station, a first message including the information, wherein the first message is transmitted via a Xn or X2 interface; and transmitting, to a user equipment, UE, a medium access control control element, MAC CE, indicating whether to activate or deactivate packet duplication for the DRB, wherein the first base station and the second base station are configured as DC for the UE. transmitting, by a central unit, CU, of the first base station to a distributed unit, DU, of the first base station via F1 interface, a user equipment, UE, context message including information to activate or deactivate a dual connectivity, DC, based packet duplication for a data radio bearer, DRB; transmitting, to a second base station, a first message including the information, wherein the first message is transmitted via a Xn or X2 interface; and transmitting, to a user equipment, UE, a medium access control control element, MAC CE, indicating whether to activate or deactivate packet duplication for the DRB, wherein the first base station and the second base station are configured as DC for the UE.
A micro-lipo needle device, comprising: a main housing comprising a cavity, wherein said cavity is configured to communicate with a vacuum source such that when the main housing is placed on an area of a body the vacuum source generates a degree of vacuum to cause a volume of skin and fat to be lifted so as to fill up the cavity; a needle to puncture the skin that has been lifted; a cannula to be inserted through the inner portion of the needle wherein the cannula is concentric with the needle and constrained to 1 dimension, whose travel being limited such that no harm is done to a patient receiving the cannula; an entry window in the main housing for the needle; a membrane that seals the entry window to prevent leakage; and an assembly comprising the needle and the cannula, wherein the assembly comprises a sweep mechanism that allows the cannula to sweep over a range of certain degrees, wherein the sweep mechanism comprises vertical positions configured to allow harvesting tissue in multiple planes. a main housing comprising a cavity, wherein said cavity is configured to communicate with a vacuum source such that when the main housing is placed on an area of a body the vacuum source generates a degree of vacuum to cause a volume of skin and fat to be lifted so as to fill up the cavity; a needle to puncture the skin that has been lifted; a cannula to be inserted through the inner portion of the needle wherein the cannula is concentric with the needle and constrained to 1 dimension, whose travel being limited such that no harm is done to a patient receiving the cannula; an entry window in the main housing for the needle; a membrane that seals the entry window to prevent leakage; and an assembly comprising the needle and the cannula, wherein the assembly comprises a sweep mechanism that allows the cannula to sweep over a range of certain degrees, wherein the sweep mechanism comprises vertical positions configured to allow harvesting tissue in multiple planes.
A method for producing a soluble agglomerated chocolate powder, said powder comprising cocoa fat and chocolate powder ingredients including at least a sweetener and/or a white component powder comprising protein, said process comprising the steps of: - providing an aqueous emulsion of cocoa fat, - loading a fluid bed agglomerator with chocolate powder solid ingredients, - spraying the emulsion of cocoa fat into the fluid bed agglomerator to form agglomerates. - providing an aqueous emulsion of cocoa fat, - loading a fluid bed agglomerator with chocolate powder solid ingredients, - spraying the emulsion of cocoa fat into the fluid bed agglomerator to form agglomerates.
A compressor device for conditioning of an environment, comprising: at least a heat exchange module housing absorbent material; selector means for placing the heat exchange module in at least a first operating condition, in which the heat exchange module is at least partly exposed to solar radiation, and in at least a second operating condition, in which the heat exchange module is exposed to a cooling environment, the heat exchange module having at least an inlet port able to receive an operating fluid at a first pressure and at least an outlet port for discharging the operating fluid at a second pressure which second pressure is greater than the first pressure, the compressor device characterized in that the heat exchange module in the first operating condition receiving solar heat such that the absorbent material releases operating fluid, determining an increase in pressure of the operating fluid internally of the heat exchange module, the heat exchange module in the second operating condition being predisposed to yield heat to the cooling environment such that the absorbent material absorbs operating fluid, causing a pressure drop internally of the heat exchange module. at least a heat exchange module housing absorbent material; selector means for placing the heat exchange module in at least a first operating condition, in which the heat exchange module is at least partly exposed to solar radiation, and in at least a second operating condition, in which the heat exchange module is exposed to a cooling environment, the heat exchange module having at least an inlet port able to receive an operating fluid at a first pressure and at least an outlet port for discharging the operating fluid at a second pressure which second pressure is greater than the first pressure, the compressor device characterized in that the heat exchange module in the first operating condition receiving solar heat such that the absorbent material releases operating fluid, determining an increase in pressure of the operating fluid internally of the heat exchange module, the heat exchange module in the second operating condition being predisposed to yield heat to the cooling environment such that the absorbent material absorbs operating fluid, causing a pressure drop internally of the heat exchange module.
A mass spectrometer comprising: a fragmentation device comprising a collision or fragmentation cell comprising a multipole rod set wherein said fragmentation device is arranged and adapted in a fragmentation mode of operation to fragment ions by Collisional Induced Dissociation ("CID"); acceleration means arranged and adapted to accelerate ions into said fragmentation device, wherein in said fragmentation mode of operation said acceleration means is arranged and adapted to progressively alter and/or vary and/or scan the kinetic energy which ions obtain as they pass to said fragmentation device so that first ions accelerated into the fragmentation device at a time t 1 are fragmented with a first kinetic energy E 1 and second different ions accelerated into the fragmentation device at a second later time t 2 are fragmented with a second different kinetic energy E 2. a fragmentation device comprising a collision or fragmentation cell comprising a multipole rod set wherein said fragmentation device is arranged and adapted in a fragmentation mode of operation to fragment ions by Collisional Induced Dissociation ("CID"); acceleration means arranged and adapted to accelerate ions into said fragmentation device, wherein in said fragmentation mode of operation said acceleration means is arranged and adapted to progressively alter and/or vary and/or scan the kinetic energy which ions obtain as they pass to said fragmentation device so that first ions accelerated into the fragmentation device at a time t 1 are fragmented with a first kinetic energy E 1 and second different ions accelerated into the fragmentation device at a second later time t 2 are fragmented with a second different kinetic energy E 2.
Method for measuring the thickness of nonmagnetisable layers on a magnetisable base material, the permeability of which is not known, having a measuring probe, which has a probe head, which comprises a pot core having a first and second coil (36, 37), which lie on a common longitudinal axis, and in which the first and second coil (36, 37) form a first coil pair, and which has a bearing calotte in the common axis, - in which, in order to measure the thickness of the layer on the base material, the probe head is placed on the layer, - wherein a first interaction volume is detected by the first coil pair with a field focusing caused by the pot core, characterised in that - that a second interaction volume is detected by a second coil pair having a first and second coil (42, 43), which is arranged outside the pot core and jointly with the longitudinal axis without field focusing by the pot core, and - that the detected first and second interaction volumes are processed in an evaluation device and compared to each other to compensate for a permeability of the base material, on which the layer to be measured is applied, and a layer thickness is output for the measured layer, which is corrected by the influence of the permeability of the base material. - in which, in order to measure the thickness of the layer on the base material, the probe head is placed on the layer, - wherein a first interaction volume is detected by the first coil pair with a field focusing caused by the pot core, characterised in that - that a second interaction volume is detected by a second coil pair having a first and second coil (42, 43), which is arranged outside the pot core and jointly with the longitudinal axis without field focusing by the pot core, and - that the detected first and second interaction volumes are processed in an evaluation device and compared to each other to compensate for a permeability of the base material, on which the layer to be measured is applied, and a layer thickness is output for the measured layer, which is corrected by the influence of the permeability of the base material.
A recombinant deamidated gliadin polypeptide antigen, comprising an interleukin 15 protein, and a DGP-1 peptide segment and a DGP-2 peptide segment linked to both ends of the interleukin 15 protein, respectively, the DGP-1 peptide segment having an amino acid sequence as set forth in SEQ ID NO. 1, and the DGP-2 peptide segment having an amino acid sequence as set forth in SEQ ID NO. 2.
A method for treating a subterranean formation penetrated by a wellbore, comprising: injecting simultaneously an alkali silicate and a micronized silicate-precipitating agent in a solid form into the wellbore; and allowing the alkali silicate and the solid micronized silicate-precipitating agent to react to form a silicate gel; wherein the micronized silicate-precipitating agent ranges from about 10 to 60 percent by weight based on the total weight of the fluid in which the micronized silicate-precipitating agent is carried. injecting simultaneously an alkali silicate and a micronized silicate-precipitating agent in a solid form into the wellbore; and allowing the alkali silicate and the solid micronized silicate-precipitating agent to react to form a silicate gel; wherein the micronized silicate-precipitating agent ranges from about 10 to 60 percent by weight based on the total weight of the fluid in which the micronized silicate-precipitating agent is carried.
A vehicle evaluation device comprising: a first projection target configured to enable projection of an image of an object on the first projection target and is variable in position, wherein the first projection target serves as an approaching object to a vehicle which includes a camera and a distance measurement sensor; a first projector configured to project the image of the object on the first projection target; and a controller configured to control the position of the first projection target, characterized in that the controller is configured to: - control the position of the first projection target in order to evaluate a first function based on a distance measured by the distance measurement sensor which is mounted to the vehicle, the distance being from the vehicle to the first projection target around the vehicle, and - control the first projector to increase a projection image area of the image to be projected on the first projection target with an approach of the first projection target in order to evaluate a second function based on an image of the first projection target captured around the vehicle by the camera which is mounted to the vehicle thereby simulating a surrounding environment of the vehicle installed at a predetermined position. for evaluating (i) a first function. a first projection target configured to enable projection of an image of an object on the first projection target and is variable in position, wherein the first projection target serves as an approaching object to a vehicle which includes a camera and a distance measurement sensor; a first projector configured to project the image of the object on the first projection target; and a controller configured to control the position of the first projection target, characterized in that the controller is configured to: - control the position of the first projection target in order to evaluate a first function based on a distance measured by the distance measurement sensor which is mounted to the vehicle, the distance being from the vehicle to the first projection target around the vehicle, and - control the first projector to increase a projection image area of the image to be projected on the first projection target with an approach of the first projection target in order to evaluate a second function based on an image of the first projection target captured around the vehicle by the camera which is mounted to the vehicle - control the position of the first projection target in order to evaluate a first function based on a distance measured by the distance measurement sensor which is mounted to the vehicle, the distance being from the vehicle to the first projection target around the vehicle, and - control the first projector to increase a projection image area of the image to be projected on the first projection target with an approach of the first projection target in order to evaluate a second function based on an image of the first projection target captured around the vehicle by the camera which is mounted to the vehicle thereby simulating a surrounding environment of the vehicle installed at a predetermined position. for evaluating (i) a first function.
A method for the synthesis of two or more different oligonucleotides comprising the steps of: a) either providing a solid support, wherein said solid support is comprised of anchor groups that are protected by two or more orthogonal protective groups and removing one of said orthogonal protective groups from the anchor groups to provide unprotected anchor groups, or providing a solid support, wherein said solid support is comprised of anchor groups that are partially unprotected, the remainder of the anchor groups being protected by one or more protective groups, the protective groups being orthogonal to each other in case more than one protective group is employed; b) synthesizing an oligonucleotide on the unprotected anchor groups; c) capping the synthesized oligonucleotide; d) removing one protective group from the anchor groups; e) synthesizing an oligonucleotide on the deprotected anchor groups; f) repeating steps c) to e) until all of the orthogonal protective groups are deprotected; and g) cleaving all synthesized oligonucleotides from the support. a) either providing a solid support, wherein said solid support is comprised of anchor groups that are protected by two or more orthogonal protective groups and removing one of said orthogonal protective groups from the anchor groups to provide unprotected anchor groups, or providing a solid support, wherein said solid support is comprised of anchor groups that are partially unprotected, the remainder of the anchor groups being protected by one or more protective groups, the protective groups being orthogonal to each other in case more than one protective group is employed; b) synthesizing an oligonucleotide on the unprotected anchor groups; c) capping the synthesized oligonucleotide; d) removing one protective group from the anchor groups; e) synthesizing an oligonucleotide on the deprotected anchor groups; f) repeating steps c) to e) until all of the orthogonal protective groups are deprotected; and g) cleaving all synthesized oligonucleotides from the support.