mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for providing a terminal identifier, comprising: receiving, by a security server, a registration information set from a terminal, wherein the registration information set comprises multiple pieces of equipment information from the terminal; generating a terminal identifier based on the multiple pieces of equipment information in the registration information set; and returning the terminal identifier to the terminal; wherein returning the terminal identifier to the terminal comprises: receiving an authentication information set from the terminal; searching for the terminal identifier corresponding to the registration information set that matches the authentication information set from a plurality of mapping relationships between a respective terminal identifier and a respective registration information set; and returning the terminal identifier to the terminal; wherein searching for the terminal identifier corresponding to the registration information set that matches the authentication information set comprises: searching for the terminal identifier corresponding to the registration information set for which a similarity to the authentication information set is greater than a predetermined threshold. receiving, by a security server, a registration information set from a terminal, wherein the registration information set comprises multiple pieces of equipment information from the terminal; generating a terminal identifier based on the multiple pieces of equipment information in the registration information set; and returning the terminal identifier to the terminal; wherein returning the terminal identifier to the terminal comprises: receiving an authentication information set from the terminal; searching for the terminal identifier corresponding to the registration information set that matches the authentication information set from a plurality of mapping relationships between a respective terminal identifier and a respective registration information set; and receiving an authentication information set from the terminal; searching for the terminal identifier corresponding to the registration information set that matches the authentication information set from a plurality of mapping relationships between a respective terminal identifier and a respective registration information set; and returning the terminal identifier to the terminal; wherein searching for the terminal identifier corresponding to the registration information set that matches the authentication information set comprises: searching for the terminal identifier corresponding to the registration information set for which a similarity to the authentication information set is greater than a predetermined threshold.
An apparatus, comprising: a camera; a camera flash; and a current optimization system connected to the camera and the camera flash, wherein the current optimization system is configured to calculate a length of a shutdown period for at least one component of the apparatus based on a flash mode of the camera and a number of flash pulses to be shot, and wherein the current optimization system is configured to partly shut down the at least one component during the shutdown period. a camera; a camera flash; and a current optimization system connected to the camera and the camera flash, wherein the current optimization system is configured to calculate a length of a shutdown period for at least one component of the apparatus based on a flash mode of the camera and a number of flash pulses to be shot, and wherein the current optimization system is configured to partly shut down the at least one component during the shutdown period.
A method for detecting at least one genetic mutation in craniopharyngioma of a subject comprising (a) extracting DNA from a fresh or frozen intracranial tumor sample obtained from the subject; (b) extracting DNA from a control tissue sample obtained from the subject; (c) generating a first library from the intracranial tumor sample comprising amplicons corresponding to a first plurality of genes; (d) generating a second library from the control tissue sample comprising amplicons corresponding to a second plurality of genes; (e) ligating a first adapter sequence comprising a first barcode sequence to the ends of the amplicons corresponding to the first plurality of genes; (f) ligating a second adapter sequence comprising a second barcode sequence to the ends of the amplicons corresponding to the second plurality of genes; and (g) detecting at least one genetic mutation in the amplicons corresponding to the first plurality of genes using high throughput massive parallel sequencing, wherein the at least one genetic mutation (i) corresponds to PIK3R2; and (ii) is not detected in the amplicons corresponding to the second plurality of genes. (a) extracting DNA from a fresh or frozen intracranial tumor sample obtained from the subject; (b) extracting DNA from a control tissue sample obtained from the subject; (c) generating a first library from the intracranial tumor sample comprising amplicons corresponding to a first plurality of genes; (d) generating a second library from the control tissue sample comprising amplicons corresponding to a second plurality of genes; (e) ligating a first adapter sequence comprising a first barcode sequence to the ends of the amplicons corresponding to the first plurality of genes; (f) ligating a second adapter sequence comprising a second barcode sequence to the ends of the amplicons corresponding to the second plurality of genes; and (g) detecting at least one genetic mutation in the amplicons corresponding to the first plurality of genes using high throughput massive parallel sequencing, wherein the at least one genetic mutation (i) corresponds to PIK3R2; and (ii) is not detected in the amplicons corresponding to the second plurality of genes. (i) corresponds to PIK3R2; and (ii) is not detected in the amplicons corresponding to the second plurality of genes.
A method for establishing a shared secret between a first and a second device (1, 2) without any shared trust between said first and second device, for the use of services provided by a service provider to a user of said second device, characterized in, a) said user of said second device being identified by said service provider, b) said second device requesting and receiving an activation code from said first device, c) said user of said second device sending said activation code to said service provider, d) said service provider sending said activation code to said first device, e) said first device confirming said activation code and generating and storing said shared secret, f) said first device generating a reference to said shared secret and transferring said reference and shared secret to said second device, g) said first device transferring said reference to said service provider, and h) said service provider storing said reference and associating said reference to said user. a) said user of said second device being identified by said service provider, b) said second device requesting and receiving an activation code from said first device, c) said user of said second device sending said activation code to said service provider, d) said service provider sending said activation code to said first device, e) said first device confirming said activation code and generating and storing said shared secret, f) said first device generating a reference to said shared secret and transferring said reference and shared secret to said second device, g) said first device transferring said reference to said service provider, and h) said service provider storing said reference and associating said reference to said user.
Upper receiver for a firearm, comprising a supporting part made of metal, which supports a barrel bushing for receiving a barrel, a guide for a longitudinally movable breech carrier, and an anchor for a sight, characterized in that the upper receiver comprises a rail block and that the guide for the breech carrier is formed on the underside of the rail block made of metal which has the anchor for the sight on its upper side, the supporting part being screwed both to the barrel bushing and to the rail block.
A method, performed by a network node, for configuring mobility measurements for a User Equipment, UE,, wherein the method comprises: - sending a configuration message to the UE, wherein the configuration message comprises a plurality of measurement offsets associated to a single measurement object, wherein the measurement offsets indicate offset values for triggering a measurement report, and wherein each of the plurality of measurement offsets being related to a respective measurement wherein the measurement offsets are defined per Reference Signal type, RS-type, that is configured for the mobility measurements for the UE. - sending a configuration message to the UE, wherein the configuration message comprises a plurality of measurement offsets associated to a single measurement object, wherein the measurement offsets indicate offset values for triggering a measurement report, and wherein each of the plurality of measurement offsets being related to a respective measurement wherein the measurement offsets are defined per Reference Signal type, RS-type, that is configured for the mobility measurements for the UE.
Pumping method in a system of vacuum pumps (SP, SPP) comprising: - a main lubricated rotary vane vacuum pump with a gas inlet port connected to a vacuum chamber and a gas outlet port leading into a conduit before coming out into the gas outlet of the system of vacuum pumps (SP, SPP), - a non-return valve positioned in the conduit between the gas outlet port and the gas outlet, and - an auxiliary lubricated rotary vane vacuum pump which has its motor and which is connected in parallel to the non-return valve, the method being characterized in that the main lubricated rotary vane vacuum pump is activated in order to pump the gases contained in the vacuum chamber through the gas outlet port; simultaneously the auxiliary lubricated rotary vane vacuum pump is activated; and the auxiliary lubricated rotary vane vacuum pump continues to operate all the while that the main lubricated rotary vane vacuum pump pumps the gases contained in the vacuum chamber and/or all the while that the main lubricated rotary vane vacuum pump maintains a defined pressure in the vacuum chamber. - a main lubricated rotary vane vacuum pump with a gas inlet port connected to a vacuum chamber and a gas outlet port leading into a conduit before coming out into the gas outlet of the system of vacuum pumps (SP, SPP), - a non-return valve positioned in the conduit between the gas outlet port and the gas outlet, and - an auxiliary lubricated rotary vane vacuum pump which has its motor and which is connected in parallel to the non-return valve,
Combination of a cable and a device for electrically connecting the cable to a housing in which a shielded element is arranged for electrically contacting a cable shield and for electrically connecting the cable shield to the housing, wherein the shielded element is multi-part and a first part of the shielded element is in electrically connecting contact with the housing, and wherein the first part is electro-conductively connected to the cable shield via at least one further part (135, 137) of the shielded element, characterised in that the shielded element has, as a first further part, a third part arranged in the housing, which part has at least one first sleeve-shaped portion, the inside of which encloses the insulation of the cable with the cable shield of the third part lying thereon, and in that a second part of the shielded element, which is arranged in the housing and which electro-conductively connects the first part of the shielded element to the cable shield, is applied as a second further part to the outside of the first sleeve-shaped portion of the third part with interposition of the cable shield which is folded around the free end of the first sleeve-shaped portion and as a result the cable shield is electrically contacted.
Method for producing a body of a passenger car, in which a plurality of body components (10 to 20) are joined to one another as double-hybrid connecting nodes which are at least partially provided with a plastic material, and in which the body is produced in a combined interior pressure shaping and injection moulding process, wherein the two body components (10, 12) are joined to each other as double connecting nodes via a deep-drawing steel while the deep-drawing steel, which likewise represents a body component, is joined to the body components (10, 12) by way of respective hydro-clinch connections, which are produced in the known manner by interior pressure shaping, wherein the entire double connecting node is overmoulded with a plastic material which is here designed as plastic ribbing, wherein within the deep-drawing steel there is provided a plurality of through-injection points, through which a positive connection is obtained between the deep-drawing steel and the body components (10, 12) respectively and wherein the body components are frame profiles.
A process for producing a compound of formula: comprising reacting a compound of formula: with diphenyl phosphine oxide using a binary phase reaction mixture comprising diphenyl phosphine oxide in an organic solvent, a basic aqueous solution, and a phase transfer catalyst, to obtain the compound of formula 1, wherein Ph is phenyl, X 1 and X 2 are both hydrogen or X 1 and X 2 taken together are CH 2, R 1 is a protecting group, R 2 is fluorine, hydrogen, or OR 3, wherein R 3 is a protecting group, and the squiggly line represents a bond that results in the adjacent double bond being in either the E or Z configuration and, wherein the reacting step is performed at a temperature in a range of about 0 °C to about 40 °C.
A gastro-resistant solid dosage form for the oral administration of therapeutic enzymes with intestinal delivery comprising: • a cationic polymer chosen from a chitosan, an aminoethyl methacrylic copolymer, or a combination thereof, and an anionic polymer chosen from carboxymethylstarch, an hydroxypropylmethylcellulose acetate succinate, or a combination thereof; and • a histaminase enzyme and a catalase enzyme, in a ratio of 9:1 to 1:9. • a cationic polymer chosen from a chitosan, an aminoethyl methacrylic copolymer, or a combination thereof, and an anionic polymer chosen from carboxymethylstarch, an hydroxypropylmethylcellulose acetate succinate, or a combination thereof; and • a histaminase enzyme and a catalase enzyme, in a ratio of 9:1 to 1:9.
An electronic magnetic contactor for determining whether an operation power is supplied, the contactor comprising: an electronic switch driving unit configured to receive a power from an operation power supply unit to drive a power supply of a load; a switching unit configured to be switched by a pulse signal to drive the electronic switch driving unit; an operation state determination unit configured to determine whether the electronic magnetic contactor is in an opened state or in a closed state; an input voltage sensing unit configured to sense an amplitude of an input voltage supplied from the operation power supply unit; and an input signal generation unit, characterised in that the input signal generation unit is configured to generate an input signal for determining whether the electronic magnetic contactor is inputted based on the determined state by the operation state determination unit and the sensed amplitude by the input voltage sensing unit, wherein the input signal generation unit includes an OR gate adapted to determine whether at least one high output is outputted based on the determined state by the operation state determination unit and the sensed amplitude by the input voltage sensing unit; and a comparator adapted to generate an input signal for determining whether the electronic magnetic contactor is inputted based on an output of the OR gate. an electronic switch driving unit configured to receive a power from an operation power supply unit to drive a power supply of a load; a switching unit configured to be switched by a pulse signal to drive the electronic switch driving unit; an operation state determination unit configured to determine whether the electronic magnetic contactor is in an opened state or in a closed state; an input voltage sensing unit configured to sense an amplitude of an input voltage supplied from the operation power supply unit; and an input signal generation unit, characterised in that the input signal generation unit is configured to generate an input signal for determining whether the electronic magnetic contactor is inputted based on the determined state by the operation state determination unit and the sensed amplitude by the input voltage sensing unit, wherein the input signal generation unit includes an OR gate adapted to determine whether at least one high output is outputted based on the determined state by the operation state determination unit and the sensed amplitude by the input voltage sensing unit; and a comparator adapted to generate an input signal for determining whether the electronic magnetic contactor is inputted based on an output of the OR gate.
Multi-layer bag comprising a porous portion configured to allow a sterilizing gas to penetrate into the bag and a gas-impervious portion, characterized in that: the gas-impervious portion comprises an outer layer, an inner layer and an intermediate layer integrally formed together, each one of the outer layer and the inner layer comprising a polymer selected from the group consisting of: polyethylene, in particular low density polyethylene or linear low density polyethylene, metallocene polyethylene, biaxially-oriented polyethylene terephthalate (BoPET), ethylene-vinyl acetate / polyethylene (EVA/PE) and mixtures thereof, so that the intermediate layer is sealingly enclosed between the outer layer and the inner layer so as to be physically isolated from inner and outer environment of the bag, and the intermediate layer comprises a matrix and at least one pigment distributed within the matrix, said pigment being configured to change at least one optical property in reaction to an environment change resulting from a damage of the outer and/or inner layer. the gas-impervious portion comprises an outer layer, an inner layer and an intermediate layer integrally formed together, each one of the outer layer and the inner layer comprising a polymer selected from the group consisting of: polyethylene, in particular low density polyethylene or linear low density polyethylene, metallocene polyethylene, biaxially-oriented polyethylene terephthalate (BoPET), ethylene-vinyl acetate / polyethylene (EVA/PE) and mixtures thereof, so that the intermediate layer is sealingly enclosed between the outer layer and the inner layer so as to be physically isolated from inner and outer environment of the bag, and the intermediate layer comprises a matrix and at least one pigment distributed within the matrix, said pigment being configured to change at least one optical property in reaction to an environment change resulting from a damage of the outer and/or inner layer.
A method of testing the function of a vibrating fork level switch configured to self-oscillate in a normal working mode by means of a closed feedback loop, said method comprising interrupting said normal working mode; driving said switch in an open-loop pulsed working mode with a test signal generated by a test facility integrated into said switch; and comparing amplitudes of received test signals at a set of times with predetermined amplitude thresholds at corresponding times, wherein said test signals are generated at a frequency related to a frequency observed in normal mode working prior to interruption thereof.
A method of predicting the dynamic sag rate of a weighting material in a drilling fluid, comprising: obtaining rheological data from a rheological measuring device; obtaining characteristic parameters using the rheological data, wherein the characteristic parameters are obtained by applying a pseudo-plastic model to the rheology data considering the shear-thinning characteristic of the drilling fluids, wherein the characteristic parameters are also obtained where rheology data is modeled considering the existence of yield stress using visco-plastic models, introducing the rheological properties of the fluid that comprise of rheological data and/or the characteristic parameters into an equation to determine the dynamic sag rate, wherein rheological properties in terms of viscosity, yield stress and shear thinning index are used in the equation to determine the dynamic sag rate, wherein the equation is (4/3)*π* a i 3 *( p s - p f) * g = 6*π* a i *U i *( μ + k *(τ 0 HB) 1/n), where a i is the radius of the weighting material particle, p s is the density of the weighting material particle, p f is the density of the fluid surrounding the particle, g is the acceleration due to gravity, U i is the dynamic sag rate of weighting particle of size a i, μ is the viscosity of the drilling fluid, γ is the shear rate, k is an empirical constant that ranges from 0.01 to 10, τ 0 HB is the yield stress, and n is the shear thinning index. obtaining rheological data from a rheological measuring device; obtaining characteristic parameters using the rheological data, wherein the characteristic parameters are obtained by applying a pseudo-plastic model to the rheology data considering the shear-thinning characteristic of the drilling fluids, wherein the characteristic parameters are also obtained where rheology data is modeled considering the existence of yield stress using visco-plastic models, introducing the rheological properties of the fluid that comprise of rheological data and/or the characteristic parameters into an equation to determine the dynamic sag rate, wherein rheological properties in terms of viscosity, yield stress and shear thinning index are used in the equation to determine the dynamic sag rate, wherein the equation is (4/3)*π* a i 3 *( p s - p f) * g = 6*π* a i *U i *( μ + k *(τ 0 HB) 1/n), where a i is the radius of the weighting material particle, p s is the density of the weighting material particle, p f is the density of the fluid surrounding the particle, g is the acceleration due to gravity, U i is the dynamic sag rate of weighting particle of size a i, μ is the viscosity of the drilling fluid, γ is the shear rate, k is an empirical constant that ranges from 0.01 to 10, τ 0 HB is the yield stress, and n is the shear thinning index.