mhurhangee/ep-ind-claims huggingface dataset:
A switch device for automatically connecting to NFC chip and capable of switching a plurality of secure elements, said switch device is disposed between the NFC chip and the secure elements, comprising: a slave port for communicatively connecting to the NFC chip; master ports for communicatively connecting to the plurality of secure elements respectively; a registry unit, in which connection information of each secure element and application information of all the applications in each secure element are stored, wherein, for each secure element, connection information and application information related to the secure element is stored in the registry unit in a one-on-one correspondence; and a master controller for controlling the switch device to establish a first channel with the NFC via the slave port, receiving a command sent from the NFC chip via the first channel, looking up the application in a secure element that corresponds to the command in the registry unit according to the command, controlling the switch device to establish a second channel with the corresponding secure element via the master port and to perform information interaction with the corresponding secure element via the second channel. a slave port for communicatively connecting to the NFC chip; master ports for communicatively connecting to the plurality of secure elements respectively; a registry unit, in which connection information of each secure element and application information of all the applications in each secure element are stored, wherein, for each secure element, connection information and application information related to the secure element is stored in the registry unit in a one-on-one correspondence; and a master controller for controlling the switch device to establish a first channel with the NFC via the slave port, receiving a command sent from the NFC chip via the first channel, looking up the application in a secure element that corresponds to the command in the registry unit according to the command, controlling the switch device to establish a second channel with the corresponding secure element via the master port and to perform information interaction with the corresponding secure element via the second channel.
Mixture comprising a compound of the structure IIIb: where R 10 is selected from: -(C 1 -C 12)-alkyl, R 21, R 22, R 23, R 24, R 25, R 31, R 32, R 33, R 34, R 35 are each independently selected from: -H, - (C 1 -C 12)-alkyl, -O-(C 1 -C 12) -alkyl, -O-(C 6 -C 20)-aryl, - (C 6 -C 20)-aryl, -halogen, -COO-(C 1 -C 12)-alkyl, -CO-(C 1 -C 12)-alkyl, -CO-(C 6 -C 20)-aryl, -COOH, -OH; and comprising a compound of the structure IIb: where R 41, R 42, R 43, R 44, R 45, R 51, R 52, R 53, R 54, R 55, R 61, R 62, R 63, R 64, R 65 are each independently selected from: -H, -(C 1 -C 12)-alkyl, -O-(C 1 -C 12)-alkyl, -O-(C 6 -C 20)-aryl, -(C 6 -C 20)-aryl, -halogen, -COO-(C 1 -C 12)-alkyl, -CO-(C 1 -C 12)-alkyl, -CO-(C 6 -C 20)-aryl, -COOH, -OH. R 10 is selected from: -(C 1 -C 12)-alkyl, R 21, R 22, R 23, R 24, R 25, R 31, R 32, R 33, R 34, R 35 are each independently selected from: -H, - (C 1 -C 12)-alkyl, -O-(C 1 -C 12) -alkyl, -O-(C 6 -C 20)-aryl, - (C 6 -C 20)-aryl, -halogen, -COO-(C 1 -C 12)-alkyl, -CO-(C 1 -C 12)-alkyl, -CO-(C 6 -C 20)-aryl, -COOH, -OH; and comprising a compound of the structure IIb: R 41, R 42, R 43, R 44, R 45, R 51, R 52, R 53, R 54, R 55, R 61, R 62, R 63, R 64, R 65 are each independently selected from: -H, -(C 1 -C 12)-alkyl, -O-(C 1 -C 12)-alkyl, -O-(C 6 -C 20)-aryl, -(C 6 -C 20)-aryl, -halogen, -COO-(C 1 -C 12)-alkyl, -CO-(C 1 -C 12)-alkyl, -CO-(C 6 -C 20)-aryl, -COOH, -OH.
A biosensor for detecting the presence and/or the enzyme activity of at least one protease, which corresponds to a biosensor comprising a support functionalized by organic compounds comprising at least one cage-forming group, which cage-forming group is complexed with at least one group of a compound comprising a target peptide sequence of the protease(s) the presence and/or enzyme activity of which are to be determined, which biosensor is regenerable.
An armature (10, 10', 10") for a moving armature receiver comprising: - a U-shaped element with a first leg (1411, 1411', 1412, 1412'), a second leg (1611, 1611', 1612, 1612') and a central portion, - a flat elongated portion having a first and a second end and defining a first plane, the elongated portion extending between the first and second ends, - a first and a second sheet both extending from the first end where the first and second sheets are attached to the first end, the first sheet having a first portion extending away from the first plane on one side of the first plane, the second sheet having a second portion extending away from the first plane on another side of the first plane and where the first and second portions are attached to the central portion. - a U-shaped element with a first leg (1411, 1411', 1412, 1412'), a second leg (1611, 1611', 1612, 1612') and a central portion, - a flat elongated portion having a first and a second end and defining a first plane, the elongated portion extending between the first and second ends, - a first and a second sheet both extending from the first end where the first and second sheets are attached to the first end, the first sheet having a first portion extending away from the first plane on one side of the first plane, the second sheet having a second portion extending away from the first plane on another side of the first plane and where the first and second portions are attached to the central portion.
An oil-retaining sintered bearing wherein a sliding surface supporting an outer peripheral surface of a shaft and an oiling surface are adjacently formed on an inner peripheral surface of a bearing hole into which the shaft is inserted; a surface open rate at the sliding surface is not larger than 10%; and a surface open rate at the oiling surface is larger than 10%, characterized in that the oiling surface is a surface exposed by removing a portion of a dense layer, and the sliding surface is a surface of a remaining portion of the dense layer that has not been removed.
A damping valve comprising: a valve element member including a pressure control valve element and an open/close valve element, the pressure control valve element being seated on and liftable from a pressure control valve seat to open and close a flow passage, the open/close valve element being seated on and liftable from an open/close valve seat to open and close a downstream side of the flow passage with respect to a part opened and closed by the pressure control valve element; an elastic member interposed between a spring receiver and the valve element member, the elastic member being configured to bias the valve element member in a direction in which the pressure control valve element separates from the pressure control valve seat and in which the open/close valve element approaches the open/close valve seat; and a solenoid configured to be capable of driving the valve element member against a biasing force by the elastic member in a direction in which the pressure control valve element approaches the pressure control valve seat, wherein in a state in which the elastic member has a natural length, a clearance is formed between the open/close valve element and the open/close valve seat, characterized in that the solenoid includes a shaft with a small-diameter portion at a distal end, the valve element member includes a socket at an end portion, and the damping valve further includes a second elastic member, the second elastic member having one end fitted to an outer periphery of the small-diameter portion and other end fitted to an inner periphery of the socket. a valve element member including a pressure control valve element and an open/close valve element, the pressure control valve element being seated on and liftable from a pressure control valve seat to open and close a flow passage, the open/close valve element being seated on and liftable from an open/close valve seat to open and close a downstream side of the flow passage with respect to a part opened and closed by the pressure control valve element; an elastic member interposed between a spring receiver and the valve element member, the elastic member being configured to bias the valve element member in a direction in which the pressure control valve element separates from the pressure control valve seat and in which the open/close valve element approaches the open/close valve seat; and a solenoid configured to be capable of driving the valve element member against a biasing force by the elastic member in a direction in which the pressure control valve element approaches the pressure control valve seat, wherein in a state in which the elastic member has a natural length, a clearance is formed between the open/close valve element and the open/close valve seat, characterized in that the solenoid includes a shaft with a small-diameter portion at a distal end, the valve element member includes a socket at an end portion, and the damping valve further includes a second elastic member, the second elastic member having one end fitted to an outer periphery of the small-diameter portion and other end fitted to an inner periphery of the socket.
A method for measuring the asymmetry of a glass-sheet manufacturing process comprising: producing a glass sheet using the glass-sheet manufacturing process; measuring the mass M 0 of the glass sheet or a test sample from the glass sheet; subjecting the glass sheet or the test sample to an ion-exchange process; measuring the change in mass Δ M of the glass sheet or the test sample as a result of step; measuring a warp value W for the glass sheet or the test sample after step; and computing an ASYM value for the glass sheet or the test sample using an equation of the form: ASYM = 2 R 2 3 2 L x + 2 L y + 2 L z W Δ M 2 M 0 W in − W out W Glass where W Glass is the molecular weight in grams/mole of the glass making up the glass sheet or the test sample prior to step, W in and W out are, respectively, the molecular weights in grams/mole of the ions being exchanged into and out of the glass in step, taken singly and not as oxides, R is the glass sheet's or the test sample's thickness-to-diagonal ratio, and L x, L y, and L z are, respectively, the length, width, and thickness of the glass sheet or the test sample in the same units as the warp value W; wherein the ASYM value calculated in step is a measure of the asymmetry of the glass-sheet manufacturing process. producing a glass sheet using the glass-sheet manufacturing process; measuring the mass M 0 of the glass sheet or a test sample from the glass sheet; subjecting the glass sheet or the test sample to an ion-exchange process; measuring the change in mass Δ M of the glass sheet or the test sample as a result of step; measuring a warp value W for the glass sheet or the test sample after step; and computing an ASYM value for the glass sheet or the test sample using an equation of the form: ASYM = 2 R 2 3 2 L x + 2 L y + 2 L z W Δ M 2 M 0 W in − W out W Glass where W Glass is the molecular weight in grams/mole of the glass making up the glass sheet or the test sample prior to step, W in and W out are, respectively, the molecular weights in grams/mole of the ions being exchanged into and out of the glass in step, taken singly and not as oxides, R is the glass sheet's or the test sample's thickness-to-diagonal ratio, and L x, L y, and L z are, respectively, the length, width, and thickness of the glass sheet or the test sample in the same units as the warp value W;
Method for encrypted communication between computer systems, characterized in that - a computing unit provides training data; - the computing unit provides an RSA key pair comprising a private key and a public key; - the computing unit stores the public key in a key memory of an external training unit; - the computing unit generates a first AES one-time key; - the computing unit encrypts the training data with the first AES one-time key; - the computing unit encrypts the first AES one-time key with the private key; - the computing unit transmits the encrypted training data and the encrypted first AES one-time key to the training unit; - the training unit tries all public keys stored in the key memory to decrypt the received first AES one-time key until the training unit decrypts the first AES one-time key; - the training unit decrypts the training data using the decrypted first AES one-time key; - the training unit processes the training data; - the training unit generates a second AES one-time key; - the training unit calculates result data during the processing of the training data and encrypts the result data with the second AES one-time key; - the training unit encrypts the second AES one-time key with the matching public key found from the key memory; - the training unit transmits the encrypted result data and the encrypted second AES one-time key back to the computing unit; and - the computing unit decrypts the second AES one-time key with the private key and decrypts the result data with the decrypted second AES one-time key. - a computing unit provides training data; - the computing unit provides an RSA key pair comprising a private key and a public key; - the computing unit stores the public key in a key memory of an external training unit; - the computing unit generates a first AES one-time key; - the computing unit encrypts the training data with the first AES one-time key; - the computing unit encrypts the first AES one-time key with the private key; - the computing unit transmits the encrypted training data and the encrypted first AES one-time key to the training unit; - the training unit tries all public keys stored in the key memory to decrypt the received first AES one-time key until the training unit decrypts the first AES one-time key; - the training unit decrypts the training data using the decrypted first AES one-time key; - the training unit processes the training data; - the training unit generates a second AES one-time key; - the training unit calculates result data during the processing of the training data and encrypts the result data with the second AES one-time key; - the training unit encrypts the second AES one-time key with the matching public key found from the key memory; - the training unit transmits the encrypted result data and the encrypted second AES one-time key back to the computing unit; and - the computing unit decrypts the second AES one-time key with the private key and decrypts the result data with the decrypted second AES one-time key.
A method performed by a User Equipment, UE, operating in a half-duplex frequency division duplex, HD-FDD, mode when being served by a first cell in a wireless communication system, for identifying and/or measuring a second cell, the method comprising: - obtaining information concerning a minimum number of downlink time resources, N, of the second cell that are available at the UE over a period of time, T0, the method CHARACTERIZED BY further comprising: - adapting at least one of a sample duration and a sampling rate based on the obtained information, and - performing identification of the second cell and/or measurement on the second cell by sampling signals according to the adapted sample duration and/or sampling rate. - obtaining information concerning a minimum number of downlink time resources, N, of the second cell that are available at the UE over a period of time, T0, - adapting at least one of a sample duration and a sampling rate based on the obtained information, and - performing identification of the second cell and/or measurement on the second cell by sampling signals according to the adapted sample duration and/or sampling rate.
An apparatus comprising: a photonic integrated circuit PIC, the PIC having at least one grating coupler disposed thereon; an optical bench; an optical system disposed on a top surface of the optical bench; an integrated heater (140, 164) at an upper surface of the PIC under the optical bench or at a bottom surface of the optical bench over the PIC; and a layer of solder disposed between the PIC and the optical bench for coupling the bottom surface of the optical bench to the PIC, wherein the layer of solder is in thermal communication with the integrated heater (140, 164). a photonic integrated circuit PIC, the PIC having at least one grating coupler disposed thereon; an optical bench; an optical system disposed on a top surface of the optical bench; an integrated heater (140, 164) at an upper surface of the PIC under the optical bench or at a bottom surface of the optical bench over the PIC; and a layer of solder disposed between the PIC and the optical bench for coupling the bottom surface of the optical bench to the PIC, wherein the layer of solder is in thermal communication with the integrated heater (140, 164).
A connecting device (5, 5') for connecting at least two pipe parts, wherein the connecting device (5, 5') is connected at least in portions to a first pipe part, and a detachable connection to at least one connecting element (3, 4) operatively connected to a second pipe part can be produced by means of said connecting device (5, 5'), said connecting device (5, 5') comprising at least one locking ring (7, 7') with at least two elastically movable latching noses (11, 11') protruding in a radially inward direction of the locking ring (7, 7'), and at least one actuator ring (9, 9') for moving the latching noses (11, 11') out of at least one locking position, in which at least one of the latching noses (11, 11') is engaged in the connecting element, into at least one unlocking position in which the engagement is detached, and vice versa, wherein the respective latching nose (11, 11') is resiliently mounted at a first end on the locking ring (7, 7') via at least one latching arm (21, 21'), and a second end of the latching nose (11, 11') opposite the first end is freely movable, characterized in that at least one guide element (13, 13') is arranged in the area of the second end of the respective latching nose (11, 11'), and the respective guide element (13, 13') is guided in at least one connecting link (15, 15') comprised by said actuator ring (9, 9') in such a way that the latching nose (11, 11') can be forced into the locking position by a spring force built up by the latching arm (21, 21') and can be forced out of the locking position into the unlocking position against the spring force by means of a movement of the actuator ring (9, 9') relative to the locking ring (7, 7') and/or of the locking ring (7, 7') relative to the actuator ring (9, 9').
A free radical curable inkjet ink containing a colour pigment and a polymerizable composition, wherein the colour pigment is a mixture of colour pigments including at least one colour pigment selected from a quinacridone pigment, a diketopyrrolo pyrrole pigment, and a mixed crystal thereof; wherein the average particle size of the colour pigment is between 80 nm and 240 nm as determined by a dynamic light scattering technique using a laser having an emission wavelength of 635 nm; wherein the polymerizable composition contains 95.0 to 99.0 wt% of monofunctional polymerizable compounds; and wherein the polymerizable composition has a double bond density DBD of at least 5.40 with the double bond density DBD being calculated by the formula: DBD = ∑ i = 1 to n n F i × wt % i MW i ∑ i = 1 to n n wt % i with: n representing the number of polymerizable compounds in the free radical curable inkjet ink; F(i) representing the functionality of the polymerizable compound i; MW(i) representing the molecular weight of the polymerizable compound i; and wt%(i) being the weight percentage of the polymerizable compound i based on the total weight of the polymerizable composition. wherein the colour pigment is a mixture of colour pigments including at least one colour pigment selected from a quinacridone pigment, a diketopyrrolo pyrrole pigment, and a mixed crystal thereof; wherein the average particle size of the colour pigment is between 80 nm and 240 nm as determined by a dynamic light scattering technique using a laser having an emission wavelength of 635 nm; wherein the polymerizable composition contains 95.0 to 99.0 wt% of monofunctional polymerizable compounds; and wherein the polymerizable composition has a double bond density DBD of at least 5.40 with the double bond density DBD being calculated by the formula: DBD = ∑ i = 1 to n n F i × wt % i MW i ∑ i = 1 to n n wt % i with: n representing the number of polymerizable compounds in the free radical curable inkjet ink; F(i) representing the functionality of the polymerizable compound i; MW(i) representing the molecular weight of the polymerizable compound i; and wt%(i) being the weight percentage of the polymerizable compound i based on the total weight of the polymerizable composition.
An adhesive-type insect trap comprising: a main body having an adhesive sheet insertion hole; a light source mount disposed on the main body; a cover detachably attached to the main body and having a through-hole formed in at least a portion thereof; and an adhesive sheet including a flypaper piece and a sheet; wherein the main body comprises a guide unit guiding the adhesive sheet, and the cover comprises a light refracting portion formed on an outer surface thereof, or an inner surface thereof and including a roughness portion (125, 225, 325); characterized in that the light refracting portion has a haze of 30% or more. a main body having an adhesive sheet insertion hole; a light source mount disposed on the main body; a cover detachably attached to the main body and having a through-hole formed in at least a portion thereof; and an adhesive sheet including a flypaper piece and a sheet; wherein the main body comprises a guide unit guiding the adhesive sheet, and the cover comprises a light refracting portion formed on an outer surface thereof, or an inner surface thereof and including a roughness portion (125, 225, 325); characterized in that the light refracting portion has a haze of 30% or more.
An orally disintegrating tablet that is (a) a compression molding product of a mixture comprising pharmaceutically active ingredient-containing granules; rapidly disintegrating granules; and a lubricant, (b) wherein the rapidly disintegrating granules contain mannitol, and organic and inorganic, hydrophilic and water-insoluble additives, (i) wherein the organic, hydrophilic and water-insoluble additives contained in said rapidly disintegrating granules are starch, crospovidone, and ethyl cellulose, and (ii) wherein the inorganic, hydrophilic and water-insoluble additive is light anhydrous silicic acid or magnesium aluminometasilicate, and wherein the proportion of the rapidly disintegrating granules in the total amount of the pharmaceutically active ingredient-containing granules and the rapidly disintegrating granules is 45-70 weight %. (a) a compression molding product of a mixture comprising pharmaceutically active ingredient-containing granules; rapidly disintegrating granules; and a lubricant, (b) wherein the rapidly disintegrating granules contain mannitol, and organic and inorganic, hydrophilic and water-insoluble additives, (i) wherein the organic, hydrophilic and water-insoluble additives contained in said rapidly disintegrating granules are starch, crospovidone, and ethyl cellulose, and (ii) wherein the inorganic, hydrophilic and water-insoluble additive is light anhydrous silicic acid or magnesium aluminometasilicate, and wherein the proportion of the rapidly disintegrating granules in the total amount of the pharmaceutically active ingredient-containing granules and the rapidly disintegrating granules is 45-70 weight %. (i) wherein the organic, hydrophilic and water-insoluble additives contained in said rapidly disintegrating granules are starch, crospovidone, and ethyl cellulose, and (ii) wherein the inorganic, hydrophilic and water-insoluble additive is light anhydrous silicic acid or magnesium aluminometasilicate, and wherein the proportion of the rapidly disintegrating granules in the total amount of the pharmaceutically active ingredient-containing granules and the rapidly disintegrating granules is 45-70 weight %.