mhurhangee/ep-ind-claims huggingface dataset:
A cryptographic processing system that performs a cryptographic process using a basis B t and a basis B* t for each integer t of t = 1,..., L+1 (L being an integer of 1 or more), the cryptographic processing system comprising: an encryption device that generates, as a ciphertext ct, a vector in which attribute information x → t is embedded in a basis vector of the basis B t for at least some integer t of t =1,..., L; a decryption device that uses, as a decryption key sk L, a vector in which predicate information v → t is embedded in a basis vector of the basis B* t for each integer t of t = 1,..., L, performs a pairing operation on the ciphertext ct generated by the encryption device and the decryption key sk L, and decrypts the ciphertext ct; and a key delegation device that generates a lower-level decryption key sk L+1 of the decryption key sk L, based on a vector in which predicate information v → L+1 is embedded in a basis vector of a basis B* L+1 and the decryption key sk L used by the decryption device. an encryption device that generates, as a ciphertext ct, a vector in which attribute information x → t is embedded in a basis vector of the basis B t for at least some integer t of t =1,..., L; a decryption device that uses, as a decryption key sk L, a vector in which predicate information v → t is embedded in a basis vector of the basis B* t for each integer t of t = 1,..., L, performs a pairing operation on the ciphertext ct generated by the encryption device and the decryption key sk L, and decrypts the ciphertext ct; and a key delegation device that generates a lower-level decryption key sk L+1 of the decryption key sk L, based on a vector in which predicate information v → L+1 is embedded in a basis vector of a basis B* L+1 and the decryption key sk L used by the decryption device.
A method of determining the presence or amount of N -acetylglyphosate in a test sample comprising: (a) providing said test sample suspected of containing said N -acetylglyphosate; (b) extracting a composition comprising the N -acetylglyphosate from said test sample; (c) adding phosphoric acid to the composition comprising the N -acetylglyphosate; (d) chromatographically separating said N -acetylglyphosate from other constituents in said composition; and, (e) analyzing the chromatographically separated N -acetylglyphosate to determine the presence or amount of the N -acetylglyphosate in the test sample. (a) providing said test sample suspected of containing said N -acetylglyphosate; (b) extracting a composition comprising the N -acetylglyphosate from said test sample; (c) adding phosphoric acid to the composition comprising the N -acetylglyphosate; (d) chromatographically separating said N -acetylglyphosate from other constituents in said composition; and, (e) analyzing the chromatographically separated N -acetylglyphosate to determine the presence or amount of the N -acetylglyphosate in the test sample.
Use of a biomarker panel comprising each of the following biomarkers: CD5; Growth-Regulated alpha protein; Matrix Metalloprotease-3; Matrix Metalloprotease-7; Serum Amyloid P-component; and Tumor Necrosis Factor Receptor-Like 2; or CD5; Matrix Metalloprotease-3; Matrix Metalloprotease-7; Serum Amyloid P-component; Tumor Necrosis Factor Receptor-Like 2; CD40 ligand; Apolipoprotein A1; Apolipoprotein A2; Angiotensin-Converting Enzyme; Cystatin C; EN-RAGE; Hepatocyte Growth Factor; Lipoprotein (a); Macrophage Inflammatory Protein-1 beta; Matrix Metalloprotease-9, total; and Receptor for advanced glycosylation end products; for the blood-based diagnosis of bipolar disorder. CD5; Growth-Regulated alpha protein; Matrix Metalloprotease-3; Matrix Metalloprotease-7; Serum Amyloid P-component; and Tumor Necrosis Factor Receptor-Like 2; or CD5; Matrix Metalloprotease-3; Matrix Metalloprotease-7; Serum Amyloid P-component; Tumor Necrosis Factor Receptor-Like 2; CD40 ligand; Apolipoprotein A1; Apolipoprotein A2; Angiotensin-Converting Enzyme; Cystatin C; EN-RAGE; Hepatocyte Growth Factor; Lipoprotein (a); Macrophage Inflammatory Protein-1 beta; Matrix Metalloprotease-9, total; and Receptor for advanced glycosylation end products;
A method, comprising: determining whether segmentation is to occur with respect to a packet data unit; and providing a sequence number in a header of the packet data unit contingent on usage of segmentation with respect to the packet data unit, wherein the sequence number is provided in the header of the packet data unit when segmentation is used with respect to the packet data unit, wherein the header of the packet data unit is not provided with any sequence numbers when segmentation is not used with respect to the packet data unit, wherein the packet data unit is a radio link control packet data unit, the method being characterised in that the sequence number identifies segments associated with a same radio link control service data unit, such that the same sequence number is used for each segment of the same radio link control service data unit and a segment offset field is provided in the header of the packet data unit that is used to indicate a position where a segment begins in a radio link control service data unit. determining whether segmentation is to occur with respect to a packet data unit; and providing a sequence number in a header of the packet data unit contingent on usage of segmentation with respect to the packet data unit, wherein the sequence number is provided in the header of the packet data unit when segmentation is used with respect to the packet data unit, wherein the header of the packet data unit is not provided with any sequence numbers when segmentation is not used with respect to the packet data unit, wherein the packet data unit is a radio link control packet data unit, the method being characterised in that the sequence number identifies segments associated with a same radio link control service data unit, such that the same sequence number is used for each segment of the same radio link control service data unit and a segment offset field is provided in the header of the packet data unit that is used to indicate a position where a segment begins in a radio link control service data unit.
A receiving state indication method for an aggregate-MAC protocol data unit, A-MPDU, comprising: receiving, by a receive end, an A-MPDU, wherein the A-MPDU comprises at least one MPDU; wherein the at least one MPDU comprises a sequence number, SN, field, and a fragment number, FN, field, when the FN field of the at least one MPDU in the A-MPDU is not 0, sending, by the receive end to the transmit end, an first acknowledgement frame indicating a receiving state of the A-MPDU, wherein the first acknowledgement frame comprises a fragment indication field and a receiving state field, wherein the fragment indication field indicates that the A-MPDU comprises at least one MPDU, which is obtained by encapsulating an Media Access Control service data unit, MSDU, fragment, wherein the MSDU fragment is a fragment of an MSDU; wherein the receiving state field indicates a receiving state of each MPDU in the A-MPDU in a sequence of SNs, wherein the SN identifies a sequence number of an MSDU in the MPDU; wherein all bits of a fixed quantity of bits in the receiving state field are corresponding to one SN, and one bit of the fixed quantity of bits in the receiving state field indicates a receiving state of one MPDU in the A-MPDU; wherein the fixed quantity of bits is 4 bits. receiving, by a receive end, an A-MPDU, wherein the A-MPDU comprises at least one MPDU; wherein the at least one MPDU comprises a sequence number, SN, field, and a fragment number, FN, field, when the FN field of the at least one MPDU in the A-MPDU is not 0, sending, by the receive end to the transmit end, an first acknowledgement frame indicating a receiving state of the A-MPDU, wherein the first acknowledgement frame comprises a fragment indication field and a receiving state field, wherein the fragment indication field indicates that the A-MPDU comprises at least one MPDU, which is obtained by encapsulating an Media Access Control service data unit, MSDU, fragment, wherein the MSDU fragment is a fragment of an MSDU; wherein the receiving state field indicates a receiving state of each MPDU in the A-MPDU in a sequence of SNs, wherein the SN identifies a sequence number of an MSDU in the MPDU; wherein all bits of a fixed quantity of bits in the receiving state field are corresponding to one SN, and one bit of the fixed quantity of bits in the receiving state field indicates a receiving state of one MPDU in the A-MPDU; wherein the fixed quantity of bits is 4 bits.
A method for producing a three-dimensional body (62, 70) in a stereolithographic process, wherein a photosensitive material is cured by radiation, wherein measuring radiation is coupled into a reference layer and detected by a sensor in a spatially resolved and time-resolved manner, characterised in that the measuring radiation remains predominantly within the reference layer due to the internal reflection.
Connection device for a pipe (100, 200) comprising a tubular body delimiting a reception housing which is arranged to receive an end portion of the pipe and which is provided internally with a sealing element, and at least one indicator (10.4) of the penetration of an end portion of the pipe into the tubular body arranged in the reception housing to move axially between an inactive position in which it is hidden by the tubular body and an active position in which it projects from the tubular body, and means for elastically returning the penetration indicator into the inactive position, the penetration indicator being positioned in the tubular body so that the pipe brings said penetration indicator in the active position when the end portion of the pipe is sufficiently engaged in the reception housing to cooperate effectively with the sealing element, characterised in that the elastic return means comprise a helical spring integrally with the penetration indicator.
An apparatus for disinfecting objects of various shapes and sizes, the apparatus comprising: a housing enclosing a disinfecting chamber in which objects are to be placed; ultraviolet light sources angularly displaced around the edge of the disinfecting chamber to emit ultraviolet light into the disinfecting chamber to be imparted on the object in the disinfecting chamber for deactivating at least a portion of the biologically-active contaminant present on the object; a liner provided to the disinfecting chamber and comprising a reflective element so that the ultraviolet light is reflected around the chamber to provide maximum incidence with the object; the apparatus being characterized by a wall within the disinfecting chamber, the wall being formed at least in part from a material that is substantially-transparent to ultraviolet light against which objects are to be leaned, wherein the ultraviolet light is transmitted through the material to reach a portion of the object contacting the wall; and a floor of the disinfecting chamber with a pyramidal shape with depressions to limit a contact area with the object in the disinfecting chamber, wherein the floor rotates within the disinfecting chamber during a disinfecting procedure relative to the ultraviolet light source to expose the object to be disinfected to every ultraviolet light source at a variety of angles and further promote maximum incidence between the object and ultraviolet light source. a housing enclosing a disinfecting chamber in which objects are to be placed; ultraviolet light sources angularly displaced around the edge of the disinfecting chamber to emit ultraviolet light into the disinfecting chamber to be imparted on the object in the disinfecting chamber for deactivating at least a portion of the biologically-active contaminant present on the object; a liner provided to the disinfecting chamber and comprising a reflective element so that the ultraviolet light is reflected around the chamber to provide maximum incidence with the object; the apparatus being characterized by a wall within the disinfecting chamber, the wall being formed at least in part from a material that is substantially-transparent to ultraviolet light against which objects are to be leaned, wherein the ultraviolet light is transmitted through the material to reach a portion of the object contacting the wall; and a floor of the disinfecting chamber with a pyramidal shape with depressions to limit a contact area with the object in the disinfecting chamber, wherein the floor rotates within the disinfecting chamber during a disinfecting procedure relative to the ultraviolet light source to expose the object to be disinfected to every ultraviolet light source at a variety of angles and further promote maximum incidence between the object and ultraviolet light source.
A virtual requestor device for use with Internet of Things, the virtual requestor device acting as a proxy for a real requestor, and comprising: a first application interface operable to register the virtual requestor device, with a registrar computer; a logic module in communication with the first application interface, the logic module configured to transmit a data feed request to the registrar computer, the data feed request comprising information identifying a data feed and information enabling communication with the virtual requestor device; and a second application interface configured to receive the identified data feed from a virtual device using the information enabling communication with the virtual requestor device. a first application interface operable to register the virtual requestor device, with a registrar computer; a logic module in communication with the first application interface, the logic module configured to transmit a data feed request to the registrar computer, the data feed request comprising information identifying a data feed and information enabling communication with the virtual requestor device; and a second application interface configured to receive the identified data feed from a virtual device using the information enabling communication with the virtual requestor device.
A method for preparing a color laser marked article using three infrared lasers L-1, L-2 and L-3 having respectively a laser emission wavelength of λ(L-1), λ(L-2) and λ(L-3) and comprising the steps of: - laser marking with the infrared laser L-1 a first color laser markable layer contained in said article including an infrared dye IR-1 having an absorption maximum in the infrared region λ max (IR-1); - laser marking with the infrared laser L-2 a second color laser markable layer contained in said article including an infrared dye IR-2 having an absorption maximum in the infrared region λ max (IR-2); - laser marking with the infrared laser L-3 a third color laser markable layer contained in said article including an infrared dye IR-3 having an absorption maximum in the infrared region λ max (IR-3); and - at least partially exposing the color laser markable article to light having a wavelength between 520 nm and 700 nm, thereby at least partially inactivating at least one IR-dye IR-1, IR-2 or IR-3 wherein, the three color laser markable layers each include a different leuco dye for forming a colour; the laser emission wavelengths satisfy the condition of: λ ⁢ L - 1 > λ ⁢ L - 2 > λ ⁢ L - 3; the infrared dye absorption maxima satisfy the condition of: λ max ⁢ IR - 1 > λ max ⁢ IR - 2 > λ max ⁢ IR - 3; and the light emitted by the infrared laser L-1 passes, in order, through the third and second color laser markable layer before exposing the first color laser markable layer. - laser marking with the infrared laser L-1 a first color laser markable layer contained in said article including an infrared dye IR-1 having an absorption maximum in the infrared region λ max (IR-1); - laser marking with the infrared laser L-2 a second color laser markable layer contained in said article including an infrared dye IR-2 having an absorption maximum in the infrared region λ max (IR-2); - laser marking with the infrared laser L-3 a third color laser markable layer contained in said article including an infrared dye IR-3 having an absorption maximum in the infrared region λ max (IR-3); and - at least partially exposing the color laser markable article to light having a wavelength between 520 nm and 700 nm, thereby at least partially inactivating at least one IR-dye IR-1, IR-2 or IR-3
A pack comprising: a. a container, the container having a container body, and the container body being sufficiently oxygen permeable to prevent an anaerobically curable composition held therein from curing due to absence of oxygen; and b. an anaerobically curable composition held within the container; wherein the container body is constructed from a plastics material which is formed from a blend of a thermoplastic starch component and a polyethylene. a. a container, the container having a container body, and the container body being sufficiently oxygen permeable to prevent an anaerobically curable composition held therein from curing due to absence of oxygen; and b. an anaerobically curable composition held within the container;
A method for controlling a transmission of information in a wireless communication network between a radio access node and a relay node, the information being transmitted in a sequence of subframes, wherein a subframe comprises a control region and an information region containing the transmitted information, a subframe corresponding to a transmission time interval, the method comprising the steps of: - allocating a downlink subframe for a downlink transmission of information from the radio access node to the relay node, wherein a downlink subframe for a downlink transmission is only allocated when a further subframe of the same transmission time interval for a transmission from the relay node to a user equipment is a subframe of a type that indicates to the user equipment that no data are received beyond the control region, and - allocating, for each allocated downlink subframe, an uplink subframe for an uplink transmission of information from the relay node to the radio access node four transmission time intervals later, wherein, when an uplink subframe is received from the relay node, corruption of the information contained in the received uplink subframe is checked during a Hybrid Automatic Repeat Request, HARQ, process, characterized in that if the subframe is not detected as corrupted, no explicit acknowledgement feedback on Physical HARQ Indicator Channel, PHICH, is transmitted back to the relay node, wherein for a corrupted received uplink subframe an uplink grant is transmitted to the relay node in the next available downlink subframe associated with the HARQ process. - allocating a downlink subframe for a downlink transmission of information from the radio access node to the relay node, wherein a downlink subframe for a downlink transmission is only allocated when a further subframe of the same transmission time interval for a transmission from the relay node to a user equipment is a subframe of a type that indicates to the user equipment that no data are received beyond the control region, and - allocating, for each allocated downlink subframe, an uplink subframe for an uplink transmission of information from the relay node to the radio access node four transmission time intervals later,
An unmanned flying vehicle comprising one or more propellers, wherein the propellers are connected to one or more driving pneumatic motors adapted to be actuated by a fluid, characterized in that - each pneumatic motor is mechanically connected to a multiplier gear that, in turn, is connected to a propeller, such that the multiplier gear multiplies the speed of the propeller with respect to the speed of the motor; and in that - each set of motor, multiplying gear and propeller is configured for creating a vertical air flow providing lift for the flying vehicle. - each pneumatic motor is mechanically connected to a multiplier gear that, in turn, is connected to a propeller, such that the multiplier gear multiplies the speed of the propeller with respect to the speed of the motor; and in that - each set of motor, multiplying gear and propeller is configured for creating a vertical air flow providing lift for the flying vehicle.
A hybrid module for a motor vehicle for coupling an internal combustion engine and a transmission, comprising a rotary part, rotatably mounted about an axis of rotation, and a hybrid module housing and a rotor position sensor device, with which an angular position of the rotary part can be determined in relation to the stationary hybrid module housing, wherein the rotor position sensor device has a sensor stator which is mechanically rigidly connected to the hybrid module housing, characterised in that the sensor stator is caulked with a component that supports it, wherein the component supporting the sensor stator has, at least in sections, a hollow cylinder shape, wherein the sensor stator is arranged on the radial outer side of the hollow cylinder, and the radial outer side of the hollow cylinder has, at least in sections, radial incisions or recesses, in which, at least in sections, the sensor stator is arranged, and the caulking is realised in that axially opposite material areas axially delimiting the incision or the recess press axially on both sides on the sensor stator. the sensor stator is caulked with a component that supports it, wherein the component supporting the sensor stator has, at least in sections, a hollow cylinder shape, wherein the sensor stator is arranged on the radial outer side of the hollow cylinder, and the radial outer side of the hollow cylinder has, at least in sections, radial incisions or recesses, in which, at least in sections, the sensor stator is arranged, and the caulking is realised in that axially opposite material areas axially delimiting the incision or the recess press axially on both sides on the sensor stator.
A housing, configured to enclose an inner rotor and an outer rotor of a gerotor system (100, 200, 300, 400, 500, 600, 700), the outer rotor having a plurality of ports (107a, 107b, 107c, 109a, 109b) comprising an inlet subset of ports (107a, 107b, 107c) and an outlet subset of ports (109a, 109b), wherein fluid flows into the gerotor system through the inlet subset of ports and out of the gerotor system through the outlet subset of ports, the housing comprising: an inlet duct (212, 312, 512, 712, 812A, 812B, 912A, 912B) fluidly coupled with the inlet subset of ports, the inlet duct comprising an inlet pipe (212, 312, 512, 712, 812A, 812B, 912A, 912B); and an outlet duct (214, 254, 314, 514, 714, 814A, 814B, 914A, 914B) fluidly coupled with the outlet subset of ports, the outlet duct comprising an outlet pipe (214, 254, 314, 514, 714, 814A, 814B, 914A, 914B), wherein the inlet pipe is located on the inlet duct at a location of an inlet port in the inlet subset of ports having a highest inlet fluid velocity for a particular design rotation rate through the inlet port and the outlet pipe is located on the outlet duct at a location of an outlet port in the outlet subset of ports having a highest outlet fluid velocity for the particular design rotation rate through the outlet port. an inlet duct (212, 312, 512, 712, 812A, 812B, 912A, 912B) fluidly coupled with the inlet subset of ports, the inlet duct comprising an inlet pipe (212, 312, 512, 712, 812A, 812B, 912A, 912B); and an outlet duct (214, 254, 314, 514, 714, 814A, 814B, 914A, 914B) fluidly coupled with the outlet subset of ports, the outlet duct comprising an outlet pipe (214, 254, 314, 514, 714, 814A, 814B, 914A, 914B), wherein the inlet pipe is located on the inlet duct at a location of an inlet port in the inlet subset of ports having a highest inlet fluid velocity for a particular design rotation rate through the inlet port and the outlet pipe is located on the outlet duct at a location of an outlet port in the outlet subset of ports having a highest outlet fluid velocity for the particular design rotation rate through the outlet port.