mhurhangee/patent-ind-claim-en huggingface dataset:
Prosthesis socket with a. a proximal insertion opening and an inner circumference at least partially surrounding a stump b. at least one connecting device for a prosthesis component which can be attached to the prosthesis socket, c. at least one actuator by means of which the inner circumference of the prosthesis socket can be changed, d. a control device and at least one sensor (30 - 35) which is coupled to the control device , characterized in that at least one sensor is designed as an inertial sensor and that the control device is connected to the actuator and activates or deactivates the latter as a function of the received sensor signals. a. a proximal insertion opening and an inner circumference at least partially surrounding a stump b. at least one connecting device for a prosthesis component which can be attached to the prosthesis socket, c. at least one actuator by means of which the inner circumference of the prosthesis socket can be changed, d. a control device and at least one sensor (30 - 35) which is coupled to the control device , characterized in that at least one sensor is designed as an inertial sensor and that the control device is connected to the actuator and activates or deactivates the latter as a function of the received sensor signals.
An active layer of an optoelectronic device, the active layer comprising: one or more non-fullerene materials; and one or more hole-scavenging materials; wherein the one or more non-fullerene materials are intimately mixed with the one or more hole-scavenging materials, and where a ratio of the one or more hole-scavenging components to the one or more non-fullerene components in the active layer ranges from 1:10 to 1:25, and wherein the active layer has an average visible transmission of greater than 70%, wherein the one or more hole scavenging materials include one or more of thiophene, acene, fluorine, carbazole, indacenodithieno thiophene, indacenothieno thiphene, benzodithiazole, thieny-benzodithiophene-dione, benzotriazole, and diketopyrrolopyrrole. one or more non-fullerene materials; and one or more hole-scavenging materials; wherein the one or more non-fullerene materials are intimately mixed with the one or more hole-scavenging materials, and where a ratio of the one or more hole-scavenging components to the one or more non-fullerene components in the active layer ranges from 1:10 to 1:25, and wherein the active layer has an average visible transmission of greater than 70%, wherein the one or more hole scavenging materials include one or more of thiophene, acene, fluorine, carbazole, indacenodithieno thiophene, indacenothieno thiphene, benzodithiazole, thieny-benzodithiophene-dione, benzotriazole, and diketopyrrolopyrrole.
System for displaying tide times comprising a display device whose display element indicates the time of at least the next high tide, wherein the display device comprises a mechanism with several stable positions allowing, on each jump between two stable positions, the display element to move forward by a predetermined displacement in order to be able to indicate, by instantaneous jump, the time of the next high tide, the mechanism with several stable positions being supported by the body of the display element in order to limit the number of parts of the mechanism .
A method for controlling a self-optimization, comprising: obtaining , by a managing unit, a target state of a first self-optimization function; and sending , by the managing unit, a setting command that comprises the target state of the first self-optimization function to a managed unit; receiving , by the managed unit, the setting command, wherein an entity that provides a self-optimization capability is on the managed unit, a switch attribute is defined on a network resource model, NRM, of the entity, for the first self-optimization function, and the first self-optimization function is handover function, load balancing function, interference control function, capacity and coverage function, random access channel optimization function, or energy saving function; setting , by the managed unit, a state of the switch attribute of the first self-optimization function to the target state according to the setting command to control enabling or disabling of the first self-optimization function. obtaining , by a managing unit, a target state of a first self-optimization function; and sending , by the managing unit, a setting command that comprises the target state of the first self-optimization function to a managed unit; receiving , by the managed unit, the setting command, wherein an entity that provides a self-optimization capability is on the managed unit, a switch attribute is defined on a network resource model, NRM, of the entity, for the first self-optimization function, and the first self-optimization function is handover function, load balancing function, interference control function, capacity and coverage function, random access channel optimization function, or energy saving function; setting , by the managed unit, a state of the switch attribute of the first self-optimization function to the target state according to the setting command to control enabling or disabling of the first self-optimization function.
An interface for connecting a vehicle structure to an chassis of a rail vehicle, comprising at least one first coupling element which is configured to dissipate forces running substantially normally to the direction of travel, wherein at least one second coupling element is provided which is configured to dissipate forces running substantially parallel to the direction of travel, characterised in that the second coupling element comprises a preferably integral stop bracket with a fastening plate and a stop plate oriented substantially 90° thereto, wherein the fastening plate is designed for removable fastening to the underside of the vehicle structure , and the stop plate is designed to be supported on a stop of a cross member , preferably a main cross member in the region of the bogie of the chassis . characterised in that the second coupling element comprises a preferably integral stop bracket with a fastening plate and a stop plate oriented substantially 90° thereto, wherein the fastening plate is designed for removable fastening to the underside of the vehicle structure , and the stop plate is designed to be supported on a stop of a cross member , preferably a main cross member in the region of the bogie of the chassis .
An assembly consisting of a pair of multifocal ocular implants, - each implant of this pair having a TFMTF (Modulation Transfer Function Through Focus) curve, for a pupil of diameter less than or equal to 4 mm, preferably less than or equal to 3 mm, which has a peak (A/VL; B/VL) corresponding to the distance vision (VL) of the wearer, as well as an asymmetrical peak (A/PE; B/PE) which spreads between intermediate vision (VI) and near vision (VP), that is to say without discontinuity between intermediate vision (VI) and near vision (VP), characterized by the fact that: - for a first implant of this pair, the TFMTF value is greater in intermediate vision (VI) than that of near vision (VP); - for the second implant of this pair, the TFMTF value is greater in near vision (VP) than that of intermediate vision (VI); - the rising edge (FA) of the asymmetrical peak (A/PE) of the first implant has, as an absolute value, a mean slope greater than that of its falling edge (FD), whereas the rising edge (FA) of the asymmetrical peak (B/PE) of the second implant has, as an absolute value, a mean slope less than that of its falling edge (FD). - each implant of this pair having a TFMTF (Modulation Transfer Function Through Focus) curve, for a pupil of diameter less than or equal to 4 mm, preferably less than or equal to 3 mm, which has a peak (A/VL; B/VL) corresponding to the distance vision (VL) of the wearer, as well as an asymmetrical peak (A/PE; B/PE) which spreads between intermediate vision (VI) and near vision (VP), that is to say without discontinuity between intermediate vision (VI) and near vision (VP), - for a first implant of this pair, the TFMTF value is greater in intermediate vision (VI) than that of near vision (VP); - for the second implant of this pair, the TFMTF value is greater in near vision (VP) than that of intermediate vision (VI); - the rising edge (FA) of the asymmetrical peak (A/PE) of the first implant has, as an absolute value, a mean slope greater than that of its falling edge (FD), whereas the rising edge (FA) of the asymmetrical peak (B/PE) of the second implant has, as an absolute value, a mean slope less than that of its falling edge (FD).
A corn harvester divider , comprising: a hood with a top surface , first and second side surfaces , a proximal end and a distal end , and a tall corn attachment mounted to the hood and configured to be positioned in a stored position or a working position, wherein in the working position the tall corn attachment extends from the top surface of the hood ; characterized in that one of the first or second side surfaces includes a recessed area formed therein; and wherein in the stored position the tall corn attachment is received within the recessed area of the hood , and wherein the tall corn attachment includes a latching mechanism for locking the tall corn attachment in the stored position or the working position. a hood with a top surface , first and second side surfaces , a proximal end and a distal end , and a tall corn attachment mounted to the hood and configured to be positioned in a stored position or a working position, wherein in the working position the tall corn attachment extends from the top surface of the hood ; characterized in that one of the first or second side surfaces includes a recessed area formed therein; and wherein in the stored position the tall corn attachment is received within the recessed area of the hood , and wherein the tall corn attachment includes a latching mechanism for locking the tall corn attachment in the stored position or the working position.
A cathode for a lithium secondary battery, comprising: a current collector; a first composite layer formed from a mixture of olivine-type lithium iron phosphate cathode active material powder and a binder on the current collector; and a second composite layer formed from a mixture of olivine-type lithium iron phosphate cathode active material powder and a binder on the first composite layer, wherein a specific surface area of the olivine-type lithium iron phosphate cathode active material powder in the second composite layer is 0.01 to 0.8 times that of the olivine-type lithium iron phosphate cathode active material powder in the first composite layer, an average particle size of the active material particles in the first composite layer being smaller than that of the active material particles in the second composite layer, wherein the load amount of the cathode active material in the first composite layer is 5 to 25 mg/cm and wherein the load amount of the cathode active material in the second composite layer is 5 to 25 mg/cm 2 . a current collector; a first composite layer formed from a mixture of olivine-type lithium iron phosphate cathode active material powder and a binder on the current collector; and a second composite layer formed from a mixture of olivine-type lithium iron phosphate cathode active material powder and a binder on the first composite layer, wherein a specific surface area of the olivine-type lithium iron phosphate cathode active material powder in the second composite layer is 0.01 to 0.8 times that of the olivine-type lithium iron phosphate cathode active material powder in the first composite layer, an average particle size of the active material particles in the first composite layer being smaller than that of the active material particles in the second composite layer, wherein the load amount of the cathode active material in the first composite layer is 5 to 25 mg/cm and wherein the load amount of the cathode active material in the second composite layer is 5 to 25 mg/cm 2 .
A cloaking system , comprising: a structure having a plurality of resonators having a controllable resonance frequency, wherein said resonators are arranged to collectively ensure that variation of said resonance frequency over a predetermined range of resonance frequencies generates a phase shift between an electromagnetic wave incident on said structure and an electromagnetic wave scattered off said structure ; and a controller configured for controlling said resonance frequency to provide a time-varying resonance frequency having a temporal function which comprises a linear time-dependence; characterized in that said controller is configured to receive velocity data characterizing a motion of a vehicle and to select said time-varying resonance frequency based on said velocity data. a structure having a plurality of resonators having a controllable resonance frequency, wherein said resonators are arranged to collectively ensure that variation of said resonance frequency over a predetermined range of resonance frequencies generates a phase shift between an electromagnetic wave incident on said structure and an electromagnetic wave scattered off said structure ; and a controller configured for controlling said resonance frequency to provide a time-varying resonance frequency having a temporal function which comprises a linear time-dependence; characterized in that said controller is configured to receive velocity data characterizing a motion of a vehicle and to select said time-varying resonance frequency based on said velocity data.
A method of fabricating a body protection apparatus for absorbing the energy of an impact, characterised by the steps of: constructing an internal planar structure from a plurality of open cells configured to deform under load, by: extruding a plurality of tubes, each with an internal circumference of a first material and an outer circumference of a second material, in which the second material has a lower melting point than the inner material, the outer diameter of said tubes being between 2mm and 9mm, cutting said extruded tubes into short tubes, each having a length of between 10mm and 25mm, arranging said short tubes in close packed arrays, and heating said tubes to weld them together; and arranging an outer layer of a flexible sheet material to overlie a surface of said internal planar structure; wherein the outer layer of flexible material is held in place relative to the internal planar structure such that the outer layer of flexible material increases the area of energy absorption under impact. extruding a plurality of tubes, each with an internal circumference of a first material and an outer circumference of a second material, in which the second material has a lower melting point than the inner material, the outer diameter of said tubes being between 2mm and 9mm, cutting said extruded tubes into short tubes, each having a length of between 10mm and 25mm, arranging said short tubes in close packed arrays, and heating said tubes to weld them together; and arranging an outer layer of a flexible sheet material to overlie a surface of said internal planar structure; wherein the outer layer of flexible material is held in place relative to the internal planar structure such that the outer layer of flexible material increases the area of energy absorption under impact.
Device for determination of a bed fall risk of an individual , the device comprising: - a first port for obtaining sensor data related to movement and/or a vital sign of an individual , - an evaluation unit for determining quality information indicating the quality of the sensor data , - a second port for obtaining personal data of the individual , - a calculation unit for calculation of a total risk score of the individual based on the sensor data , the quality information and the personal data , said total risk score indicating a bed fall risk of the individual , and - a third port for output of the calculated total risk score. - a first port for obtaining sensor data related to movement and/or a vital sign of an individual , - an evaluation unit for determining quality information indicating the quality of the sensor data , - a second port for obtaining personal data of the individual , - a calculation unit for calculation of a total risk score of the individual based on the sensor data , the quality information and the personal data , said total risk score indicating a bed fall risk of the individual , and - a third port for output of the calculated total risk score.
Agricultural machine having an air line which has a casing and has a flow cross section for guiding an air flow (L), wherein the agricultural machine comprises a separating apparatus for pressure-difference-based separation of grains (S) and the air line serves as a compressed-air line for transporting separated grains (S) to the arable soil in a manner assisted by compressed air, wherein the air line has at least one air-guiding portion for directing the air flow (L) radially inwards, wherein the casing has a passage opening (KE) in its casing surface and the casing is deformed inwards so as to form a depression in the direction of the passage opening (KE), characterized - in that the air line has a curved portion (10.1) with a radially inner sub-region (T1) and with a radially outer sub-region (T2), and - in that the flow cross section tapers in the flow direction in the curved section (10.1) and tapers radially inwards from the radially outer sub-region (T2) of the curved portion (10.1). - in that the air line has a curved portion (10.1) with a radially inner sub-region (T1) and with a radially outer sub-region (T2), and - in that the flow cross section tapers in the flow direction in the curved section (10.1) and tapers radially inwards from the radially outer sub-region (T2) of the curved portion (10.1).
A once daily pharmaceutical dosage form, wherein said dosage form is a sustained release dosage form comprising a core containing tofacitinib, or a pharmaceutically acceptable salt thereof, and a semi-permeable membrane coating wherein said coating comprises a water-insoluble polymer which comprises a cellulose derivative, said dosage form being an extrudable core system tablet or capsule delivering tofacitinib primarily by osmotic pressure wherein the tofacitinib-containing composition includes an amount of viscosifying polymers ranging from 2 weight % to 20 weight % and an amount of osmotically active agents ranging from 60 weight % to 85 weight % of the tofacitinib-containing composition and the semi-permeable membrane coating contains one or more openings, and when added to a test medium comprising 900 ml of 0.05M pH 6.8 potassium phosphate buffer at 37° C in a standard USP rotating paddle apparatus and the paddles are rotated at 50 rpm, dissolves not more than 30% of the tofacitinib in 1 hour, and not less than 35% and not more than 75% of the tofacitinib in 2.5 hours and not less than 75% of the tofacitinib in 5 hours.
A radar fill level measurement device for fill level measurement or for recording a topology of a filling material surface in a container, comprising: a circuit board comprising a first circuit board surface and a second circuit board surface ; and a first radar chip on the first circuit board surface and a second radar chip on the second circuit board surface , wherein the first radar chip and the second radar chip each comprises one or more transmission channels configured to generate a transmission signal, and one or more reception channels configured to receive the transmission signals that are reflected at the filling material surface, wherein at least one of the transmission channels of the first radar chip is connected, via a first line , to an antenna assembly for radiating the transmission signal, and wherein at least one of the reception channels of the second radar chip is connected, via a second line , to the antenna assembly for receiving the reflected transmission signal. a circuit board comprising a first circuit board surface and a second circuit board surface ; and a first radar chip on the first circuit board surface and a second radar chip on the second circuit board surface , wherein the first radar chip and the second radar chip each comprises one or more transmission channels configured to generate a transmission signal, and one or more reception channels configured to receive the transmission signals that are reflected at the filling material surface, wherein at least one of the transmission channels of the first radar chip is connected, via a first line , to an antenna assembly for radiating the transmission signal, and wherein at least one of the reception channels of the second radar chip is connected, via a second line , to the antenna assembly for receiving the reflected transmission signal.
A positioning method for a receiving device, comprising: transmitting (S302), by a transmitting device, a pilot signal to an electromagnetic reflecting surface; transmitting (S304), by the transmitting device, control information to an electromagnetic reflecting surface control unit, wherein the control information comprises temporal information and control direction information, the control information is used for instructing the electromagnetic reflecting surface control unit to orient, in target time periods, reflected beams formed by target pilot signals on the electromagnetic reflecting surface towards preset directions, the preset directions are directions indicated by multiple pieces of preset direction information corresponding to respective ones of the target time periods, the preset directions point to a target area, the temporal information comprises the target time periods, the control direction information comprises the preset direction information, and the pilot signal transmitted by the transmitting device comprises the target pilot signals; and determining (S306), by the transmitting device or the receiving device, signal measurement results corresponding to the preset directions, and positioning (S306), by the transmitting device or the receiving device, the receiving device according to the preset directions and the signal measurement results, wherein the signal measurement results are the ones obtained by measuring, by the receiving device located in the target area, the received target pilot signals reflected in the preset directions. transmitting (S302), by a transmitting device, a pilot signal to an electromagnetic reflecting surface; transmitting (S304), by the transmitting device, control information to an electromagnetic reflecting surface control unit, wherein the control information comprises temporal information and control direction information, the control information is used for instructing the electromagnetic reflecting surface control unit to orient, in target time periods, reflected beams formed by target pilot signals on the electromagnetic reflecting surface towards preset directions, the preset directions are directions indicated by multiple pieces of preset direction information corresponding to respective ones of the target time periods, the preset directions point to a target area, the temporal information comprises the target time periods, the control direction information comprises the preset direction information, and the pilot signal transmitted by the transmitting device comprises the target pilot signals; and determining (S306), by the transmitting device or the receiving device, signal measurement results corresponding to the preset directions, and positioning (S306), by the transmitting device or the receiving device, the receiving device according to the preset directions and the signal measurement results, wherein the signal measurement results are the ones obtained by measuring, by the receiving device located in the target area, the received target pilot signals reflected in the preset directions.