mhurhangee/ep-ind-claims huggingface dataset:
A security system, comprising: a tag device, a client apparatus and a plurality of security servers (2760-1,...,2760-p) wherein at least one of the security servers (2760-1,...,2760-p) includes a first key memory in which key ID's and secret keys are stored in a manner relating to each other, and is adapted to receive a second privileged ID which comprises a key ID kid j and an encrypted text epk j (id h) of a tag ID id h, extract a secret key sk j which corresponds to the key ID kid j from the first key memory, decrypt the encrypted text epk j (id h) using the secret key sk j to determine the tag ID id h, and output the tag ID id h, each of the security servers (2760-1,...,2760-p) includes a second key memory in which key ID's and public keys are stored in a manner relating to each other, and is adapted to select an arbitrary key number i, to extract a key ID kid i and a public key pk i which correspond to the key number i from the second key memory, to encrypt the tag ID id h using the public key pk i, to generate a privileged ID which comprises the encrypted text epk i (id h) of the tag ID id h and the key ID kid i, and to output the privileged ID; the client apparatus is adapted to receive the privileged ID's being those outputted from the security servers (2760-1,...,2760-p), and to output the privileged ID's to the tag device; and the tag device includes: a privileged ID input section to which privileged ID's are input, the privileged ID's being those outputted from the client apparatus; a privileged ID memory adapted to store the privileged ID's; a privileged ID extractor connected to the privileged ID memory, the privileged ID extractor adapted to extract one of the privileged ID's arbitrarily from the privileged ID memory at a given opportunity; and a privileged ID output section adapted to deliver the extracted privileged ID. a privileged ID input section to which privileged ID's are input, the privileged ID's being those outputted from the client apparatus; a privileged ID memory adapted to store the privileged ID's; a privileged ID extractor connected to the privileged ID memory, the privileged ID extractor adapted to extract one of the privileged ID's arbitrarily from the privileged ID memory at a given opportunity; and a privileged ID output section adapted to deliver the extracted privileged ID.
A multi-core fiber comprising: n number of even numbered cores; and a cladding surrounding the cores, wherein in the even numbered cores, a half of the even numbered cores are first cores which are disposed in a manner that centers are located on apexes of a regular polygon whose center is at an origin point in the cladding, in the even numbered cores, second cores other than said first cores are disposed in a manner that centers are located on perpendicular bisectors of edges of the regular polygon on an inner side of the regular polygon, characterized in that an expression below is satisfied where a size of an acute angle formed of a line connecting a center of a first core to a center of a second core adjacent to said first core and a line connecting the center of said first core to the origin point is defined as φ, wherein the combination(n, φ) of n and φ is any one of (10, 28.5°), (10, 30.0°), (10, 35.0°), (12, 26.0°), (12, 35.0°), (14, 25.0°), (14, 30.0°), (14, 35.0°), (16, 25.0°), (16, 30.0°), (16, 35.0°), (18, 25.0°), (18, 30.0°), and (18, 35.0°) and wherein tan − 1 tan 360 ° n ⋅ sin 360 ° 2 n tan 360 ° n − sin 360 ° 2 n < φ < 90 ° − 540 ° n n number of even numbered cores; and a cladding surrounding the cores, wherein in the even numbered cores, a half of the even numbered cores are first cores which are disposed in a manner that centers are located on apexes of a regular polygon whose center is at an origin point in the cladding, in the even numbered cores, second cores other than said first cores are disposed in a manner that centers are located on perpendicular bisectors of edges of the regular polygon on an inner side of the regular polygon, characterized in that an expression below is satisfied where a size of an acute angle formed of a line connecting a center of a first core to a center of a second core adjacent to said first core and a line connecting the center of said first core to the origin point is defined as φ, wherein the combination(n, φ) of n and φ is any one of (10, 28.5°), (10, 30.0°), (10, 35.0°), (12, 26.0°), (12, 35.0°), (14, 25.0°), (14, 30.0°), (14, 35.0°), (16, 25.0°), (16, 30.0°), (16, 35.0°), (18, 25.0°), (18, 30.0°), and (18, 35.0°) and wherein tan − 1 tan 360 ° n ⋅ sin 360 ° 2 n tan 360 ° n − sin 360 ° 2 n < φ < 90 ° − 540 ° n
Use of a pressure-sensitive adhesive in an adhesive strip comprising at least one layer, the strip being redetachable without residue or destruction by extensive stretching substantially in the bond plane, at least one layer being formed of the pressure-sensitive adhesive, which consists of an ethylene polymer having a density of between 0.86 and 0.89 g/cm 3, preferably between 0.86 and 0.88 g/cm 3, more preferably between 0.86 and 0.87 g/cm 3, and having a crystallite melting point of at least 105°C, preferably at least 115°C, and of at least one tackifier resin, where the ethylene polymer - has a melt index of less than 6 g/10 min, - has a flexural modulus of less than 26 MPa and/or - comprises a C 3 to C 10 olefin. - has a melt index of less than 6 g/10 min, - has a flexural modulus of less than 26 MPa and/or - comprises a C 3 to C 10 olefin.
Device having a double-walled connector and double-walled attachments for connecting pipe ends (80, 82) of double-walled pipes (72, 74) for angular compensation and for length compensation in the event of relative movements of the pipes (72, 74) relative to the double-walled connector, wherein, on the double-walled connector, there are arranged first and second ball heads (20, 26) which are each sealingly engaged over by ball cages (52, 54) in a manner rotatable in all planes, which ball cages are formed on the double-walled attachments for receiving double-walled pipe ends (80, 82) which are axially displaceable therein, characterized in that the second ball heads are arranged on the outer periphery of the double-walled connector in a manner adjustable in an axial direction via an outer/inner thread (94, 96).
An exhaust gas control system for an internal combustion engine, which includes a turbocharger that has a compressor provided to an intake passage of an internal combustion engine and a turbine provided to an exhaust passage of the internal combustion engine; a high-pressure EGR device which has a high-pressure EGR passage that connects a portion of the exhaust passage, which is upstream of the turbine to a portion of the intake passage, which is downstream of the compressor, and which returns part of exhaust gas to the internal combustion engine through the high-pressure EGR passage; and a low-pressure EGR device which has a low-pressure EGR passage that connects a portion of the exhaust passage, which is downstream of the turbine to a portion of the intake passage, which is upstream of the compressor, and which returns part of the exhaust gas through the low-pressure EGR passage, the exhaust gas control system performing exhaust gas recirculation while switching between use of the high-pressure EGR device and use of the low-pressure EGR device or using the high-pressure EGR device and the low-pressure EGR device in combination, characterized in that a mixture ratio between the exhaust gas recirculated by the high-pressure EGR device and the exhaust gas recirculated by the low-pressure EGR device is controlled based on a correlation between the mixture ratio and a fuel consumption rate of the internal combustion engine.
Method for protecting a computing apparatus against manipulation, which includes a plurality of components (105 to 112) configured for executing software and having associated access rights, including: revoking (S11, S22) a number of the access rights to the components (105 to 112) during a start process of the computing apparatus, and determining (S12, S23) a subset of the access rights to the components (105 to 112), which is invariable during the execution of the software, based on the revoked access rights, wherein the computing apparatus is operated in a first operating mode in which the plurality of the access rights to the components (105 to 112) exists, and in a second operating mode following the first operating mode in which only the ascertained subset of the access rights to the components (105 to 112) exists. revoking (S11, S22) a number of the access rights to the components (105 to 112) during a start process of the computing apparatus, and determining (S12, S23) a subset of the access rights to the components (105 to 112), which is invariable during the execution of the software, based on the revoked access rights, wherein the computing apparatus is operated in a first operating mode in which the plurality of the access rights to the components (105 to 112) exists, and in a second operating mode following the first operating mode in which only the ascertained subset of the access rights to the components (105 to 112) exists.
A pharmaceutical composition comprising a compound selected from wherein R is selected from wherein R' is selected from H, CH 3, Et, or X, and wherein R" is selected from H or C1-C8 alkyl, for use in reducing or preventing pain in a mammal by modulating TRPC4 activity, wherein the pain is selected from acute, chronic, neuropathic, nociceptive and visceral pain, or a combination thereof. wherein R is selected from wherein R' is selected from H, CH 3, Et, or X, and wherein R" is selected from H or C1-C8 alkyl, for use in reducing or preventing pain in a mammal by modulating TRPC4 activity,
A Class D power amplification modulation system for self-adaptive adjustment of an audio signal, comprising: an amplification circuit module, connected to the audio signal, and configured to amplify the audio signal; a pulse width modulation, PWM, circuit module, connected to the amplification circuit module, and configured to perform PWM processing on an amplified audio signal generated by the amplification circuit module to generate a PWM signal; a drive circuit module, connected to the PWM circuit module, and configured to perform system drive processing on the PWM signal to feed back to the audio signal; a frequency detection circuit module, connected to the audio signal, and configured to perform frequency detection processing on the audio signal; a carrier generator module, connected to the frequency detection circuit module and the PWM circuit module, and configured to load a signal generated by the frequency detection circuit onto a carrier modulation signal, generate a carrier wave adjusted according to the frequency of the audio signal and transmit said carrier wave generated after the frequency detection processing to the PWM circuit module; an amplitude detection circuit module, connected to the audio signal, and configured to perform amplitude detection processing on the audio signal; and a direct current, DC, potential adjustment module, connected to the amplitude detection circuit module, and configured to performing DC potential analysis processing on a signal generated after the amplitude detection processing to generate a DC potential of the audio signal. an amplification circuit module, connected to the audio signal, and configured to amplify the audio signal; a pulse width modulation, PWM, circuit module, connected to the amplification circuit module, and configured to perform PWM processing on an amplified audio signal generated by the amplification circuit module to generate a PWM signal; a drive circuit module, connected to the PWM circuit module, and configured to perform system drive processing on the PWM signal to feed back to the audio signal; a frequency detection circuit module, connected to the audio signal, and configured to perform frequency detection processing on the audio signal; a carrier generator module, connected to the frequency detection circuit module and the PWM circuit module, and configured to load a signal generated by the frequency detection circuit onto a carrier modulation signal, generate a carrier wave adjusted according to the frequency of the audio signal and transmit said carrier wave generated after the frequency detection processing to the PWM circuit module; an amplitude detection circuit module, connected to the audio signal, and configured to perform amplitude detection processing on the audio signal; and a direct current, DC, potential adjustment module, connected to the amplitude detection circuit module, and configured to performing DC potential analysis processing on a signal generated after the amplitude detection processing to generate a DC potential of the audio signal.
A composite structure comprising a base and a layer stacked on the base, wherein the layer comprises a reaction product, the reaction product is a reaction product formed by a reaction at least between a metal oxide and a phosphorus compound, and a peak for a binding energy of an oxygen-atom Is orbital observed by X-ray photoelectron spectroscopy of the layer is located at 532.0 eV or higher, and the peak has a half width of less than 2.0 eV, wherein the metal oxide is a hydrolytic condensate of a compound containing a metal atom to which a hydrolyzable characteristic group is bonded, the metal atom is aluminum, the hydrolysable characteristic group is an alkoxy group, the phosphorus compound is at least one compound selected from the group consisting of phosphoric acid, polyphosphoric acid, phosphorous acid, phosphonic acid, and derivatives thereof, the phosphorus compound comprises at least phosphoric acid.
An apparatus for accumulating a fluid, wherein the fluid is breast milk extracted from the female breast, the apparatus comprising: a drain bottle for containing the fluid, a reservoir having an outlet towards the drain bottle, the reservoir and the drain bottle communicating with each other via a valve provided in the outlet, wherein a lower side wall of the reservoir is fluid-tight, a suction aperture connectable with a suction pump for creating a vacuum in the reservoir, an optical sensing device operably coupled to the reservoir and adjusted to measure the volume of the fluid standing in the reservoir, the optical sensing device comprising a light source and a detector, wherein the light source is configured to emit light towards the reservoir and the detector is configured to detect an intensity of the light emanating from the reservoir, and at least one light directing means (30, 32) for directing the light on its path from the light source to the detector, characterized in that the optical sensing device is configured as a structural unit being detachable from the reservoir. a drain bottle for containing the fluid, a reservoir having an outlet towards the drain bottle, the reservoir and the drain bottle communicating with each other via a valve provided in the outlet, wherein a lower side wall of the reservoir is fluid-tight, a suction aperture connectable with a suction pump for creating a vacuum in the reservoir, an optical sensing device operably coupled to the reservoir and adjusted to measure the volume of the fluid standing in the reservoir, the optical sensing device comprising a light source and a detector, wherein the light source is configured to emit light towards the reservoir and the detector is configured to detect an intensity of the light emanating from the reservoir, and at least one light directing means (30, 32) for directing the light on its path from the light source to the detector, characterized in that the optical sensing device is configured as a structural unit being detachable from the reservoir.
A method for encoding a signal of a wireless communication system, the method comprising: dividing a current frame of the signal into a plurality of Groups of Blocks, hereinafter referred to as GOBs, each having a certain size; determining whether a current GOB to be encoded of the plurality of GOBs is a first GOB of the current frame; calculating a rate control parameter value of the current GOB based on a rate control parameter value of a first GOB of a previous frame of the signal if it is determined that the current GOB is the first GOB of the current frame; calculating a rate control parameter value of the current GOB based on a rate control parameter value of a previous GOB of the current frame if it is determined that the current GOB is not the first GOB of the current frame; controlling an encoding bit rate of the current GOB according to the calculated rate control parameter value; updating a difference value between a total bit rate assigned to the current GOB and a target bit rate; updating the target bit rate of the GOB of the current frame using the updated difference value; and encoding the current GOB. dividing a current frame of the signal into a plurality of Groups of Blocks, hereinafter referred to as GOBs, each having a certain size; determining whether a current GOB to be encoded of the plurality of GOBs is a first GOB of the current frame; calculating a rate control parameter value of the current GOB based on a rate control parameter value of a first GOB of a previous frame of the signal if it is determined that the current GOB is the first GOB of the current frame; calculating a rate control parameter value of the current GOB based on a rate control parameter value of a previous GOB of the current frame if it is determined that the current GOB is not the first GOB of the current frame; controlling an encoding bit rate of the current GOB according to the calculated rate control parameter value; updating a difference value between a total bit rate assigned to the current GOB and a target bit rate; updating the target bit rate of the GOB of the current frame using the updated difference value; and encoding the current GOB.
A backpack comprising: a main body including a housing; and a shoulder belt extending from an upper portion of the main body, wherein a fastening strap that passes through an inside of the housing is attached to the main body in such a manner that a housed object is able to be biased toward a back of a wearer in the housing, the fastening strap is arranged in such a manner that one end of the fastening strap is directly or indirectly secured to a predetermined position inside the housing in a lower portion of the housing, the fastening strap extends through the inside of the housing and is attached along the shoulder belt, and the other end of the fastening strap is located outside the housing on a front side beyond a top of a shoulder of the wearer, and has a fastening length adjustable at a position on the front side of the wearer. a main body including a housing; and a shoulder belt extending from an upper portion of the main body, wherein a fastening strap that passes through an inside of the housing is attached to the main body in such a manner that a housed object is able to be biased toward a back of a wearer in the housing, the fastening strap is arranged in such a manner that one end of the fastening strap is directly or indirectly secured to a predetermined position inside the housing in a lower portion of the housing, the fastening strap extends through the inside of the housing and is attached along the shoulder belt, and the other end of the fastening strap is located outside the housing on a front side beyond a top of a shoulder of the wearer, and has a fastening length adjustable at a position on the front side of the wearer.
A fiber bundle (1, 7) for bearing microorganisms, wherein the fiber bundle comprises fiber filaments wound into a ring shape or having two ends of fiber filaments bound into a bundle; wherein the cross section of the fiber filaments is a non-circular shape selected from an oval shape, a cashew shape, a triangular shape, a pentagonal shape, a square shape, a prismatic shape, a Y shape, a plum shape, a cruciform shape and a Union Jack shape; characterized in that the fiber filaments have an outer surface that is rough, or has grooves, holes or protrusions, the fiber bundle has a specific surface area of from 14,400 m 2 /m 3 to 18,000 m 2 /m 3, the fiber porosity is about 90% and the fiber bundle bearing capacity of microorganisms is 162 kg/m 3 to 202 kg/m 3.
A method for preparing solid capsules (30; 35), comprising the following steps: a) adding with stirring a composition C1 comprising at least one compound A, in a liquid composition C2 comprising a thermo-expansible material, said thermo-expansible material being selected from the group consisting of waxes, fluorocarbons, and mixtures thereof C1 and C2 not being miscible with each other, C2 being at temperature T2, whereby an emulsion is obtained comprising drops (1; 5) of composition C1 dispersed in the composition C2, b) addition with stirring of the emulsion obtained in step a) into a liquid composition C3 able to be polymerized, C3 and C2 not being miscible with each other, C3 being at temperature T3, preferably equal to T2, whereby an emulsion is obtained comprising drops (10; 15) dispersed in the composition C3, c) addition with stirring of the emulsion obtained in step b) in a liquid composition C4, C4 and C3 not being miscible with each other, C4 being at temperature T4 less than or equal to T2 and less than or equal to T3, whereby an emulsion is obtained comprising drops (20; 25) dispersed in the composition C4, and d) polymerization of the drops (20; 25) obtained in step c), whereby solid capsules (30; 35) are obtained, dispersed in the composition C4. a) adding with stirring a composition C1 comprising at least one compound A, in a liquid composition C2 comprising a thermo-expansible material, said thermo-expansible material being selected from the group consisting of waxes, fluorocarbons, and mixtures thereof C1 and C2 not being miscible with each other, C2 being at temperature T2, whereby an emulsion is obtained comprising drops (1; 5) of composition C1 dispersed in the composition C2, C1 and C2 not being miscible with each other, C2 being at temperature T2, whereby an emulsion is obtained comprising drops (1; 5) of composition C1 dispersed in the composition C2, b) addition with stirring of the emulsion obtained in step a) into a liquid composition C3 able to be polymerized, C3 and C2 not being miscible with each other, C3 being at temperature T3, preferably equal to T2, whereby an emulsion is obtained comprising drops (10; 15) dispersed in the composition C3, C3 and C2 not being miscible with each other, C3 being at temperature T3, preferably equal to T2, whereby an emulsion is obtained comprising drops (10; 15) dispersed in the composition C3, c) addition with stirring of the emulsion obtained in step b) in a liquid composition C4, C4 and C3 not being miscible with each other, C4 being at temperature T4 less than or equal to T2 and less than or equal to T3, whereby an emulsion is obtained comprising drops (20; 25) dispersed in the composition C4, and C4 and C3 not being miscible with each other, C4 being at temperature T4 less than or equal to T2 and less than or equal to T3, whereby an emulsion is obtained comprising drops (20; 25) dispersed in the composition C4, and d) polymerization of the drops (20; 25) obtained in step c), whereby solid capsules (30; 35) are obtained, dispersed in the composition C4.