mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for communications management in respect of a moving platform, comprising: an interface for receiving condition data, wherein the condition data is representative of a prevailing situational and/or environmental condition affecting a current communications plan, and in response generating a plan request for sending to a dynamic planner; and a dynamic planner configured to, in response to receiving the plan request from the interface: generate an antenna and/or link selection plan; generate a power transmission selection and/or antenna beam selection plan; and generate a node manoeuvre plan; and for each of the antenna and/or link selection plan, power transmission selection and/or antenna beam selection plan, and node manoeuvre plan, generate a plan metric, wherein the interface is configured to select the plan having the highest plan metric to implement, in order to optimise communications. an interface for receiving condition data, wherein the condition data is representative of a prevailing situational and/or environmental condition affecting a current communications plan, and in response generating a plan request for sending to a dynamic planner; and a dynamic planner configured to, in response to receiving the plan request from the interface: generate an antenna and/or link selection plan; generate a power transmission selection and/or antenna beam selection plan; and generate a node manoeuvre plan; and for each of the antenna and/or link selection plan, power transmission selection and/or antenna beam selection plan, and node manoeuvre plan, generate a plan metric, wherein the interface is configured to select the plan having the highest plan metric to implement, in order to optimise communications. generate an antenna and/or link selection plan; generate a power transmission selection and/or antenna beam selection plan; and generate a node manoeuvre plan; and for each of the antenna and/or link selection plan, power transmission selection and/or antenna beam selection plan, and node manoeuvre plan, generate a plan metric, wherein the interface is configured to select the plan having the highest plan metric to implement, in order to optimise communications.
A process for the preparation of dinitrotoluene which comprises (a) nitrating toluene with a nitrating acid, wherein said nitrating acid is a mixture of nitric acid and sulfuric acid, in one or more nitration steps, and separating the nitrating acid from the process stream thus formed, wherein a crude mixture comprising dinitrotoluene and a fraction of said nitrating acid dissolved therein is obtained, said crude mixture further comprising at least 50 ppm of HCN, and (b) washing the crude dinitrotoluene containing mixture in one or more washing steps, wherein, before the first washing step is carried out, the crude mixture is distilled and/or stripped in a flash evaporator, stripping or distillation column to remove HCN therefrom, wherein a crude dinitrotoluene containing mixture containing at most 25 ppm of HCN is obtained, and the gaseous phase obtained from the top of the flash evaporator, stripping or distillation column is partially condensed in order to recover a condensate containing nitric acid, sulfuric acid and dinitrotoluene while keeping at least 50 % of the HCN in the gaseous phase.
A test device comprising: a plurality of specimens having a circular cross section that accommodates a test target; a specimen holding part that holds said plurality of the specimens in a row; a light emitting element (62, 63) from which light is incident on two adjacent specimens among the plurality of specimens held in the specimen holding part; a first light guide path that guides light emitted by the light emitting element; a second light guide path that is formed thinner than the first light guide path and that defines respective light guiding paths (72L, 72R; 73L, 73R; 212, 222; 213, 223) configured to guide the light emitted by the light emitting element from the first light guide path to the respective adjacent specimens; and a light-receiving element configured to receive light transmitted or scattered by the specimen for each specimen characterized in that the light emitting element, the first light guide path and the second light guide path are configured such that the light is incident on the respective adjacent specimens in an oblique direction with respect to a direction connecting the light-receiving element and the specimen, the direction being also orthogonal to the arrangement direction of specimens in the specimen holding part. a plurality of specimens having a circular cross section that accommodates a test target; a specimen holding part that holds said plurality of the specimens in a row; a light emitting element (62, 63) from which light is incident on two adjacent specimens among the plurality of specimens held in the specimen holding part; a first light guide path that guides light emitted by the light emitting element; a second light guide path that is formed thinner than the first light guide path and that defines respective light guiding paths (72L, 72R; 73L, 73R; 212, 222; 213, 223) configured to guide the light emitted by the light emitting element from the first light guide path to the respective adjacent specimens; and a light-receiving element configured to receive light transmitted or scattered by the specimen for each specimen characterized in that the light emitting element, the first light guide path and the second light guide path are configured such that the light is incident on the respective adjacent specimens in an oblique direction with respect to a direction connecting the light-receiving element and the specimen, the direction being also orthogonal to the arrangement direction of specimens in the specimen holding part.
A computer-implemented medical method of irradiation treatment planning, the method comprising the following steps: - calculating a plurality of deliverable irradiation treatment plans thereby considering at least one device constraint of a particular irradiation device (step S1); - identifying one or more spatial dose differentiating regions, in which a difference in spatial dose distribution exists between two or more of the calculated deliverable irradiation treatment plans (step S2); - comparing the calculated deliverable irradiation treatment plans regarding their respective spatial dose distribution and removing plans from the plurality of calculated deliverable irradiation treatment plans, which are considered to be redundant with respect to the spatial dose distribution (step S3); - filtering relevant plans out of the calculated plurality of deliverable irradiation treatment plans (step S4), wherein a plan is considered relevant if it is compliant with at least one given radiotherapy prescription of a patient and/or with one or more given radiotherapy constraints, and - grouping those plans of the calculated deliverable irradiation treatment plans together, which provide a difference in the spatial dose distribution within a particular spatial region of the spatial dose distribution (step S5). - calculating a plurality of deliverable irradiation treatment plans thereby considering at least one device constraint of a particular irradiation device (step S1); - identifying one or more spatial dose differentiating regions, in which a difference in spatial dose distribution exists between two or more of the calculated deliverable irradiation treatment plans (step S2); - comparing the calculated deliverable irradiation treatment plans regarding their respective spatial dose distribution and removing plans from the plurality of calculated deliverable irradiation treatment plans, which are considered to be redundant with respect to the spatial dose distribution (step S3); - filtering relevant plans out of the calculated plurality of deliverable irradiation treatment plans (step S4), wherein a plan is considered relevant if it is compliant with at least one given radiotherapy prescription of a patient and/or with one or more given radiotherapy constraints, and - grouping those plans of the calculated deliverable irradiation treatment plans together, which provide a difference in the spatial dose distribution within a particular spatial region of the spatial dose distribution (step S5).
A respiratory manifold, comprising: a distal base port, wherein the base port includes an inner sleeve that is rotatable relative to the base port; two annular slots (26,28) for anchoring the inner sleeve rotatable relative to the base port, a central body coupled to the base port having at least one arm, each arm having a lateral port, and each lateral port having an inner sleeve that is rotatable relative to the lateral port; and a proximal port coupled to the central body, wherein the base port, the central body, each lateral port and the proximal port cooperate to provide a passageway, wherein at least one arm and its lateral port is positioned at an angle in a range of less than 90 degrees relative to the central body, and; characterised in that the base port includes a bridge included on the distal end of the central body, the bridge having a smooth transition from the central body and arranged to direct a suction catheter moved through the proximal port into the passageway and through the base port to a tracheal tube coupled thereto, without folding, twisting or bunching of any portion of the suction catheter within the manifold wherein the bridge is located concentrically inward from the annular slots (26, 28). a distal base port, wherein the base port includes an inner sleeve that is rotatable relative to the base port; two annular slots (26,28) for anchoring the inner sleeve rotatable relative to the base port, a central body coupled to the base port having at least one arm, each arm having a lateral port, and each lateral port having an inner sleeve that is rotatable relative to the lateral port; and a proximal port coupled to the central body, wherein the base port, the central body, each lateral port and the proximal port cooperate to provide a passageway, wherein at least one arm and its lateral port is positioned at an angle in a range of less than 90 degrees relative to the central body, and; characterised in that the base port includes a bridge included on the distal end of the central body, the bridge having a smooth transition from the central body and arranged to direct a suction catheter moved through the proximal port into the passageway and through the base port to a tracheal tube coupled thereto, without folding, twisting or bunching of any portion of the suction catheter within the manifold wherein the bridge is located concentrically inward from the annular slots (26, 28).
A process for the production of a mould core for the one-part production of wind power installation rotor blades, comprising the steps: - providing a flexible hollow body, for example a film tube, - inserting the hollow body between at least two mould portions which are so arranged relative to each other that they form a negative shape of the rotor blade to be produced, - filling the hollow body with loose material prior to and after insertion of the hollow body between the mould portions, and - producing a reduced pressure in the hollow body after it has been filled and inserted in such a way that the hollow body solidifies, wherein prior to the insertion step the hollow body is partially filled with loose material and completely filled after the insertion step. - providing a flexible hollow body, for example a film tube, - inserting the hollow body between at least two mould portions which are so arranged relative to each other that they form a negative shape of the rotor blade to be produced, - filling the hollow body with loose material prior to and after insertion of the hollow body between the mould portions, and - producing a reduced pressure in the hollow body after it has been filled and inserted in such a way that the hollow body solidifies,
Apparatus, comprising: a system processor comprising a temperature module and an electropotential module; an insertion tube, configured to be inserted into a body cavity; a distal tip connected to the insertion tube, the distal tip having an external surface and a cavity formed in the external surface, the cavity being surrounded by a region of the external surface having a curvature, wherein the distal tip is configured to receive radiofrequency energy at an ablation frequency adapted to perform ablation on the body cavity; a microelectrode configured to fit into the cavity so that a surface of the microelectrode is contoured, located and oriented to conform with the curvature of the region; and at least two conductors of two different materials connected at a junction to form a thermocouple and the conductors are insulated from the distal tip; characterized in that the junction is connected to the microelectrode so as to provide a signal representative of a temperature of the microelectrode to the temperature module and in that at least one of the conductors is connected to the microelectrode and configured to convey an electropotential generated by the body cavity and detected by the microelectrode to the elctropotential module. a system processor comprising a temperature module and an electropotential module; an insertion tube, configured to be inserted into a body cavity; a distal tip connected to the insertion tube, the distal tip having an external surface and a cavity formed in the external surface, the cavity being surrounded by a region of the external surface having a curvature, wherein the distal tip is configured to receive radiofrequency energy at an ablation frequency adapted to perform ablation on the body cavity; a microelectrode configured to fit into the cavity so that a surface of the microelectrode is contoured, located and oriented to conform with the curvature of the region; and at least two conductors of two different materials connected at a junction to form a thermocouple and the conductors are insulated from the distal tip; characterized in that the junction is connected to the microelectrode so as to provide a signal representative of a temperature of the microelectrode to the temperature module and in that at least one of the conductors is connected to the microelectrode and configured to convey an electropotential generated by the body cavity and detected by the microelectrode to the elctropotential module.
A double-layered tube of the tobacco processing industry, produced from a first and a second material strip portion (11, 12), wherein the first material strip portion has a first width and the second material strip portion has a second width, wherein the first and the second material strip portions (11, 12) are wound around one another such that the first material strip portion in cross section is shaped to be circular or oval and the edges (13, 14) defining the first width abut one another, wherein the second material strip portion in cross section is shaped to be circular or oval, and the edges (15, 16) defining the second width abut one another, wherein the second material strip portion is arranged externally around the first material strip portion, wherein the abutting edges of the first and second material strip portions (11, 12) are offset to one another in the circumferential direction, characterized in that the thickness of the first and second material strip portions (11, 12) ranges from 38 μm to 160 μm, wherein a positioning adhesive is provided between the first and second material strip portions (11, 12) as glue over the entire surface or approximately over the entire surface with an application thickness of 10 μm to 80 μm.
Sealing ring for sealing a rotating first machine element, comprising a tensioning element with a first and a second end side which are of planar configuration in the radial direction, and a sealing lip which is bulged out axially in the direction of the first end side, characterized in that the sealing lip is connected to the second end side of the tensioning element, in that the first end side of the tensioning element has a first elevation which extends in the axial direction and the second end side of the tensioning element has a second elevation which extends in the axial direction, in that the tensioning element and the two elevations (5, 6) are configured in one piece and from a uniform material, and in that the first elevation is at a radial first spacing from the sealing lip which is smaller than a radial second spacing between the second elevation and the sealing lip.
Device for transporting containers in a beverage filling plant, which device has at least one first clamp, which can be pivoted between an open switching position and a closed switching position and is arranged in a pivoting plane, for holding a container of a first container size and one second clamp, which can be pivoted between an open switching position and a closed switching position and is arranged in the pivoting plane, for holding a container of a second container size, characterised in that a first control cam is provided for controlling the switching position of the first clamp and a second control cam is provided for controlling the switching position of the second clamp, wherein the first control cam is arranged in a first control plane parallel to the pivoting plane and the second control cam is arranged in a second control plane parallel to the pivoting plane and the first control plane and the second control plane are spaced apart from each other.
A method for executing a chip card function (128, 168) provided by a first and/or second chip, wherein the first and second chip are part of a chip card, of which the card material carries the first and the second chip, wherein a first physical unclonable function PUF with respect to a first sensor element of the first chip is formed by the card material, said method comprising the following steps: a1) receiving a first signal (Sig I), which is determined by the first physical unclonable function, by the first sensor element; b1) deriving a first cryptographic key (PS_A) by the first chip from the first signal; c1) authenticating the first chip to the second chip with the aid of the first cryptographic key; d) establishing a cryptographically protected data transmission channel between the first and second chip; and e) exchanging data between the first and second chip via the data transmission channel in order to execute the chip card function. a1) receiving a first signal (Sig I), which is determined by the first physical unclonable function, by the first sensor element; b1) deriving a first cryptographic key (PS_A) by the first chip from the first signal; c1) authenticating the first chip to the second chip with the aid of the first cryptographic key; d) establishing a cryptographically protected data transmission channel between the first and second chip; and e) exchanging data between the first and second chip via the data transmission channel in order to execute the chip card function.
Multi-bottle container, such as six-packs and the like, comprising a box-like external packaging comprising divisions, grouped in pairs and arranged in two parallel rows, in each case in succession, for receiving bottles, the external packaging being formed from a base and at least two opposing side walls (5, 7), and the base being provided with opening formations as engagement openings (26, 28) for mounting the container on support members of a bottle crate, characterised in that the base of the container is provided, centrally in the base longitudinal direction, with a number of elongate first opening formations corresponding to the number (n) of bottle division pairs and with second opening formations complementary thereto, which are arranged in a plurality of parallel rows transverse to the base longitudinal direction, at a lateral distance from and in the gaps between the first opening formations, and in that the number of rows is (n-1) the number (n) of bottle division pairs, the opening formations having elongate slits (26, 28) of an oval or rectangular outline with rounded corners, or in that the opening formations each have two web openings (42, 44) which are arranged at a distance from one another and between which a slit-like opening extends in each case.
A modular hand-held system for ocular surgery, the system comprising: a hand-held phacoemulsification unit; a hand-held pump unit, the pump unit adapted to provide suction for aspirating material through the phacoemulsification unit, the pump unit comprising: an adapter configured to detachably couple the phacoemulsification unit to the pump unit to form an integrated hand-held system; a drive portion comprising a rotor; and a pumping portion, characterized in that the pumping portion comprises a fluid port, wherein the drive portion further comprises a body and a slot formed in the body, and wherein the fluid port is received into the slot when the pumping portion is coupled to the drive portion. a hand-held phacoemulsification unit; a hand-held pump unit, the pump unit adapted to provide suction for aspirating material through the phacoemulsification unit, the pump unit comprising: an adapter configured to detachably couple the phacoemulsification unit to the pump unit to form an integrated hand-held system; a drive portion comprising a rotor; and a pumping portion, characterized in that the pumping portion comprises a fluid port, wherein the drive portion further comprises a body and a slot formed in the body, and wherein the fluid port is received into the slot when the pumping portion is coupled to the drive portion. an adapter configured to detachably couple the phacoemulsification unit to the pump unit to form an integrated hand-held system; a drive portion comprising a rotor; and a pumping portion, characterized in that the pumping portion comprises a fluid port, wherein the drive portion further comprises a body and a slot formed in the body, and wherein the fluid port is received into the slot when the pumping portion is coupled to the drive portion.
A high-frequency circuit for use in a dual-band wireless communications apparatus selectively using first and second frequency bands, comprising a coupler having a primary line having input and output ends for a transmission signal and a secondary line, a detector comprising a detection diode for detecting a transmission power of a high-frequency signal sent from the secondary line of said coupler, and a harmonics-suppressing circuit disposed between the secondary line of said coupler and said detection diode, characterized in that the harmonics-suppressing circuit is an attenuator circuit constituted by one or more resistors, and the high-frequency circuit further comprises a diplexer connected to the output of a power amplifier for sending either one of transmission signals in the first and second frequency bands to an antenna, wherein the primary line is connected to a common end of the diplexer; and a matching circuit constituted either by a shunt inductor connected to a coupling line of said coupler between the secondary line of said coupler and the harmonics-suppressing circuit, or by a shunt inductor and a phase circuit connected to the coupling line of said coupler between the secondary line of said coupler and said harmonics-suppressing circuit. a diplexer connected to the output of a power amplifier for sending either one of transmission signals in the first and second frequency bands to an antenna, wherein the primary line is connected to a common end of the diplexer; and a matching circuit constituted either by a shunt inductor connected to a coupling line of said coupler between the secondary line of said coupler and the harmonics-suppressing circuit, or by a shunt inductor and a phase circuit connected to the coupling line of said coupler between the secondary line of said coupler and said harmonics-suppressing circuit.