mhurhangee/patent-ind-claim-en huggingface dataset:
An axle assembly for a working machine , the axle assembly comprising: an axle having first and second ends , the first end having a first wheel mount for pivotably mounting a first wheel to the axle and the second end having a second wheel mount for pivotably mounting a second wheel to the axle ; and a steering arrangement for pivoting the first and second wheel mounts relative to the axle, the steering arrangement comprising a steering linkage connected between the first and second wheel mounts and configured to pivot the first and second wheel mounts relative to the axle , wherein the steering arrangement comprises an actuator configured to actuate the steering linkage in order to effect pivoting of the first and second wheel mounts , and wherein the actuator is directly connected to the steering linkage characterized in that the steering linkage is substantially non-linear. an axle having first and second ends , the first end having a first wheel mount for pivotably mounting a first wheel to the axle and the second end having a second wheel mount for pivotably mounting a second wheel to the axle ; and a steering arrangement for pivoting the first and second wheel mounts relative to the axle, the steering arrangement comprising a steering linkage connected between the first and second wheel mounts and configured to pivot the first and second wheel mounts relative to the axle , wherein the steering arrangement comprises an actuator configured to actuate the steering linkage in order to effect pivoting of the first and second wheel mounts , and wherein the actuator is directly connected to the steering linkage characterized in that the steering linkage is substantially non-linear.
A method of sterilizing one or more used or un-used absorbent articles comprising in order the steps of: a. Providing the used or un-used absorbent articles, b. Separating said absorbent articles into smaller parts, c. Heating and at least partially drying said absorbent articles, d. Directly applying ozone in gaseous state to said absorbent articles, characterized in that the heating of step c is conducted at a temperature of at least 80° C to at most 200° C and in that the ozone in gaseous state has a concentration of at least 960 ppm or 2.05567 g/m 3 in air to at most 3000 ppm or 6.42398 g/m 3 in air. a. Providing the used or un-used absorbent articles, b. Separating said absorbent articles into smaller parts, c. Heating and at least partially drying said absorbent articles, d. Directly applying ozone in gaseous state to said absorbent articles,
An organic light emitting diode, OLED, comprising: an organic electroluminescent layer formed between a first electrode and a second electrode , wherein one of the first and second electrodes is a transparent electrode through which light is emitted from the OLED to the outside, the one electrode comprising a nano-meter metallic layer having a plasmonic photonic crystal structure, and wherein the plasmonic photonic crystal structure is configured having a bandgap in the frequency range of surface plasmon polaritons, SPP, generated at a surface of the one electrode, thereby operable to suppress propagation of the surface plasmon polaritons at the surface and so provide for transmission of electromagnetic radiation having a wavelength of between 350nm to 750nm from the OLED; characterized in that the one electrode further comprises at least one grating formed on the surface of the one electrode, wherein the at least one grating formation comprises a plurality of cavities ; wherein the depth of the cavities is between 1 nm and 50 nm. an organic electroluminescent layer formed between a first electrode and a second electrode , wherein one of the first and second electrodes is a transparent electrode through which light is emitted from the OLED to the outside, the one electrode comprising a nano-meter metallic layer having a plasmonic photonic crystal structure, and wherein the plasmonic photonic crystal structure is configured having a bandgap in the frequency range of surface plasmon polaritons, SPP, generated at a surface of the one electrode, thereby operable to suppress propagation of the surface plasmon polaritons at the surface and so provide for transmission of electromagnetic radiation having a wavelength of between 350nm to 750nm from the OLED; characterized in that the one electrode further comprises at least one grating formed on the surface of the one electrode, wherein the at least one grating formation comprises a plurality of cavities ; wherein the depth of the cavities is between 1 nm and 50 nm.
A compound semiconductor laminated substrate comprising: two single-crystalline compound semiconductor substrates each containing A and B as constituent elements and both having the same composition and the same atomic arrangement, which substrates are directly bonded together and laminated, wherein a front surface and a back surface of the laminated substrate are polar faces made of atoms of the same kind of A or B, and the laminated interface is a unipolar antiphase boundary constituted by bonds of atoms either of A atom to A atom, or B atom to B atom, with coherency of the crystal lattices, wherein the crystal lattice of one single-crystalline compound semiconductor substrate side and the crystal lattice of the other single-crystalline compound semiconductor substrate side are continuously connected together over the entire laminated interface, and the density of incoherent interfaces is less than or equal to 0.1% of the density of atoms constituting the interface over the entire laminated interface, and wherein the crystal orientation of the bonded two single-crystalline compound semiconductor substrates are aligned. two single-crystalline compound semiconductor substrates each containing A and B as constituent elements and both having the same composition and the same atomic arrangement, which substrates are directly bonded together and laminated, wherein a front surface and a back surface of the laminated substrate are polar faces made of atoms of the same kind of A or B, and the laminated interface is a unipolar antiphase boundary constituted by bonds of atoms either of A atom to A atom, or B atom to B atom, with coherency of the crystal lattices, wherein the crystal lattice of one single-crystalline compound semiconductor substrate side and the crystal lattice of the other single-crystalline compound semiconductor substrate side are continuously connected together over the entire laminated interface, and the density of incoherent interfaces is less than or equal to 0.1% of the density of atoms constituting the interface over the entire laminated interface, and wherein the crystal orientation of the bonded two single-crystalline compound semiconductor substrates are aligned.
An imidazopyridazine compound of the following Chemical Formula 1, or an optical isomer thereof: wherein, in Chemical Formula 1, R 1 is H or halogen; L is selected form the group consisting of -CH=CH-, -(CH 2 ) p - and -(CH 2 ) p -O-; p is an integer of 1 to 3; R2 is a bond, or -(CH2)n-, -CO-, -NR4-(CH2)n- or -O-(CH 2 ) n -; n is an integer of 0 to 3; R 4 is H or C 1-6 alkyl; W is saturated or partially unsaturated 5- to 8-membered unsubstituted monocyclic heterocycloalkyl containing 1 to 4 heteroatoms selected from among N, O and S, or W is piperidinyl, piperazinyl, pyrrolidinyl or morpholine, wherein each of the piperidinyl, piperazinyl, pyrrolidinyl and morpholine groups is substituted with one or more types of same or different substituents selected from the group consisting of halogen, cyano, linear or branched C 1-6 alkyl, C 3-10 cycloalkyl, haloC 1-5 alkyl, hydroxyC 1-6 alkyl, amino, mono or diC 1-6 alkylamino, oxo, hydroxy, C 1-6 alkoxy and sulfonyl; and R 3 is selected from the group consisting of H, halogen, linear or branched C 1-6 alkyl, linear or branched C 2-10 alkenyl, C 3-10 cycloalkyl, haloC 1-5 alkyl, hydroxyC 1-6 alkyl, amino, mono or di(C 1-6 alkyl)amino, hydroxy, C 1-6 alkoxy, C 3-10 cycloalkylC 1-6 alkyl, (mono or di(C 1-6 alkyl)amino)heterocycloalkyl, (hydroxyC 1-6 alkyl)heterocycloalkyl, heterocycloalkyl and hydroxyheterocycloalkyl. R 1 is H or halogen; L is selected form the group consisting of -CH=CH-, -(CH 2 ) p - and -(CH 2 ) p -O-; p is an integer of 1 to 3; R2 is a bond, or -(CH2)n-, -CO-, -NR4-(CH2)n- or -O-(CH 2 ) n -; n is an integer of 0 to 3; R 4 is H or C 1-6 alkyl; W is saturated or partially unsaturated 5- to 8-membered unsubstituted monocyclic heterocycloalkyl containing 1 to 4 heteroatoms selected from among N, O and S, or W is piperidinyl, piperazinyl, pyrrolidinyl or morpholine, wherein each of the piperidinyl, piperazinyl, pyrrolidinyl and morpholine groups is substituted with one or more types of same or different substituents selected from the group consisting of halogen, cyano, linear or branched C 1-6 alkyl, C 3-10 cycloalkyl, haloC 1-5 alkyl, hydroxyC 1-6 alkyl, amino, mono or diC 1-6 alkylamino, oxo, hydroxy, C 1-6 alkoxy and sulfonyl; and R 3 is selected from the group consisting of H, halogen, linear or branched C 1-6 alkyl, linear or branched C 2-10 alkenyl, C 3-10 cycloalkyl, haloC 1-5 alkyl, hydroxyC 1-6 alkyl, amino, mono or di(C 1-6 alkyl)amino, hydroxy, C 1-6 alkoxy, C 3-10 cycloalkylC 1-6 alkyl, (mono or di(C 1-6 alkyl)amino)heterocycloalkyl, (hydroxyC 1-6 alkyl)heterocycloalkyl, heterocycloalkyl and hydroxyheterocycloalkyl.
A method of converting solid carbon based material comprising the steps of: providing a rotatable chamber in which the material can be heated; introducing the material into the chamber; indirectly, heating the material in the chamber to a temperature between-260 °C (500°F) and 538 °C (1000°F) to reduce the material; rotating the heated chamber with the material in the heated chamber; collecting low temperature gases or oil or both from the reduced material from the chamber; and collecting residual solids from the reduced material from the chamber, wherein the residual solids include tire carbon, said method being characterized in that the material is a whole tire introduced into the chamber without grinding or pulverizing the whole tire and in that the material is subjected to only one heating step. providing a rotatable chamber in which the material can be heated; introducing the material into the chamber; indirectly, heating the material in the chamber to a temperature between-260 °C (500°F) and 538 °C (1000°F) to reduce the material; rotating the heated chamber with the material in the heated chamber; collecting low temperature gases or oil or both from the reduced material from the chamber; and collecting residual solids from the reduced material from the chamber, wherein the residual solids include tire carbon, said method being characterized in that the material is a whole tire introduced into the chamber without grinding or pulverizing the whole tire and in that the material is subjected to only one heating step.
An aircraft refueling device , this device comprising a deformable pipe for the circulation of fuel, the downstream end of which is provided with a wing fastener for the connection thereof onto an intake port of an aircraft fuel tank , this device comprising a first sensor for measuring the pressure (P) values (P1), in the vicinity of the wing fastener , of a fuel flow (E) in the deformable pipe , as well as a member for determining the rate (Q) of the flow (E) in the deformable pipe, characterized in that the refueling device further comprises at least: - a second sensor for measuring the pressure values (P2) of the flow (E) upstream of the deformable pipe ; and - a unit is provided for calculating the value (ΔP1) of the pressure drop (ΔP) of the flow (E) in the deformable pipe , based on the pressure values (P1, P2) measured by the first and second sensors ; and - a unit for comparing this calculated pressure drop value (ΔP1) with a reference value (ΔP0) established for the same flow (E) rate (Q). - a second sensor for measuring the pressure values (P2) of the flow (E) upstream of the deformable pipe ; and - a unit is provided for calculating the value (ΔP1) of the pressure drop (ΔP) of the flow (E) in the deformable pipe , based on the pressure values (P1, P2) measured by the first and second sensors ; and - a unit for comparing this calculated pressure drop value (ΔP1) with a reference value (ΔP0) established for the same flow (E) rate (Q).
A dynamic adaptable environment resource apparatus comprising: a plurality of environment sensors configured to collect home status data; a graphical interface configured to receive and/or display resource schedule data; a processor configured to: process the resource schedule data and the home status data and issue communications to implement at least one adaptive environment schedule, the at least one adaptive environment schedule changing based on the processed resource schedule data and the processed home status data, receive a user request to initiate a temporary override of the at least one adaptive environment schedule, implement the temporary override schedule based on the temporary override of the at least one adaptive environment schedule without adjusting the at least one adaptive environment schedule, the temporary override schedule being a different schedule from the least one adaptive environment schedule and including a specified time period for the duration of the temporary override schedule, and return to the at least one adaptive environment schedule after completion of the specified time period of the temporary override schedule, wherein home status data collected from the plurality of environment sensors during the temporary override of the at least one adaptive environment schedule does not change the at least one adaptive environment schedule. process the resource schedule data and the home status data and issue communications to implement at least one adaptive environment schedule, the at least one adaptive environment schedule changing based on the processed resource schedule data and the processed home status data, receive a user request to initiate a temporary override of the at least one adaptive environment schedule, implement the temporary override schedule based on the temporary override of the at least one adaptive environment schedule without adjusting the at least one adaptive environment schedule, the temporary override schedule being a different schedule from the least one adaptive environment schedule and including a specified time period for the duration of the temporary override schedule, and return to the at least one adaptive environment schedule after completion of the specified time period of the temporary override schedule, wherein home status data collected from the plurality of environment sensors during the temporary override of the at least one adaptive environment schedule does not change the at least one adaptive environment schedule.
Method for configuring a massage program of a massage device of a vehicle seat of a vehicle by means of an electronic control unit , which communicates indirectly or directly with at least one control device of the vehicle seat of the vehicle, wherein, in the configuration of the created massage program, at least one pressurizable element (SE n , RE n ) of the vehicle seat is controlled by means of the electronic control unit via the at least one control device of the vehicle seat , and the control device of the vehicle seat outputs the massage program after the start of the massage program in accordance with the performed configuration by controlling the individual pressurizable elements (SE n , RE n ) in the vehicle seat , characterized in that, within the configuration to create the massage program, at least one configuration step is performed by means of the electronic control unit and at least one configuration step is performed directly at the seat part and/or on the backrest part .
A trailer coupling for motor vehicles, comprising a carrier unit arranged on a tail region of the motor vehicle , a ball neck , which carries at a first end a coupling ball , and which at a second end is held on the carrier unit , a groove which surrounds a central axis of the coupling ball and in which an entrainment ring is rotatably guided about the central axis , and a sensor unit which is arranged in the coupling ball and which detects rotary positions of the entrainment ring , wherein the entrainment ring is provided with a sensing structure , which can be sensed by a sensor unit arranged in the ball body , wherein the sensing structure is arranged on the carrier body , characterized in that the sensing structure comprises successive regions , which influence a magnetic field with differing strengths, in that the successive regions are magnetizable with different strengths, in that the sensing structure is constructed as an alternating structure, for example periodic in the peripheral direction , the structure comprising material webs and material web gaps succeeding each other about the central axis in the peripheral direction, and in that the sensor unit comprises a magnetically biased sensor arrangement for sensing the rotary positions of the entrainment ring . a ball neck , which carries at a first end a coupling ball , and which at a second end is held on the carrier unit , a groove which surrounds a central axis of the coupling ball and in which an entrainment ring is rotatably guided about the central axis , and a sensor unit which is arranged in the coupling ball and which detects rotary positions of the entrainment ring , wherein the entrainment ring is provided with a sensing structure , which can be sensed by a sensor unit arranged in the ball body , wherein the sensing structure is arranged on the carrier body , characterized in that the sensing structure comprises successive regions , which influence a magnetic field with differing strengths, in that the successive regions are magnetizable with different strengths, in that the sensing structure is constructed as an alternating structure, for example periodic in the peripheral direction , the structure comprising material webs and material web gaps succeeding each other about the central axis in the peripheral direction, and in that the sensor unit comprises a magnetically biased sensor arrangement for sensing the rotary positions of the entrainment ring .
A sensor system comprising: a sensor adapted for transcutaneous insertion into a host's skin; a housing adapted for placement adjacent to the host's skin; an electronics unit releasably attachable to the housing; and an applicator configured to insert the sensor through the housing and into the skin of the host, wherein the applicator is adapted to releasably mate with the housing , wherein the sensor system is characterised by being configured to release the applicator from the housing when the electronics unit is attached to the housing , and wherein the sensor system is configured such that mating the electronics unit to the housing triggers the release of the applicator from the housing . a sensor adapted for transcutaneous insertion into a host's skin; a housing adapted for placement adjacent to the host's skin; an electronics unit releasably attachable to the housing; and an applicator configured to insert the sensor through the housing and into the skin of the host, wherein the applicator is adapted to releasably mate with the housing , wherein the sensor system is characterised by being configured to release the applicator from the housing when the electronics unit is attached to the housing , and wherein the sensor system is configured such that mating the electronics unit to the housing triggers the release of the applicator from the housing .
A hypertube system for detecting a position of a hypertube vehicle traveling along a travel path, the system comprising: the hypertube vehicle ; a tube unit configured to surround the travel path of the hypertube vehicle ; at least one LiDAR sensor mounted on an inner wall of the tube unit and including a laser transmission unit configured to irradiate a laser (L11) toward the hypertube vehicle and a laser reception unit configured to detect a laser; wherein: the hypertube vehicle includes a reflector configured to reflect the laser (L11) irradiated from the LiDAR sensor ; and the laser reception unit of the LiDAR sensor is configured to receive a reflected laser component (L12) of the laser reflected from the reflector to be used in detecting the position of the hypertube vehicle along the travel path. the hypertube vehicle ; a tube unit configured to surround the travel path of the hypertube vehicle ; at least one LiDAR sensor mounted on an inner wall of the tube unit and including a laser transmission unit configured to irradiate a laser (L11) toward the hypertube vehicle and a laser reception unit configured to detect a laser; wherein: the hypertube vehicle includes a reflector configured to reflect the laser (L11) irradiated from the LiDAR sensor ; and the laser reception unit of the LiDAR sensor is configured to receive a reflected laser component (L12) of the laser reflected from the reflector to be used in detecting the position of the hypertube vehicle along the travel path. the hypertube vehicle includes a reflector configured to reflect the laser (L11) irradiated from the LiDAR sensor ; and the laser reception unit of the LiDAR sensor is configured to receive a reflected laser component (L12) of the laser reflected from the reflector to be used in detecting the position of the hypertube vehicle along the travel path.
A method for privacy protection, wherein the method is performed by a second computing device and comprises: receiving a data request for object data from a first computing device, wherein the object data is associated with an object and is stored in the second computing device; performing encryption of the object data using a public key associated with the object based on the data request to generate a first ciphertext; obtaining verification data based on the first ciphertext for verifying whether a ciphertext to be verified corresponds to the object data, wherein obtaining the verification data based on the first ciphertext comprises storing the first ciphertext in a blockchain to obtain a storage location of the first ciphertext in the blockchain and wherein the verification data comprises the storage location; and sending the verification data to the first computing device for the first computing device to execute a secure multiparty computation protocol for the object data with a third computing device based on the verification data. receiving a data request for object data from a first computing device, wherein the object data is associated with an object and is stored in the second computing device; performing encryption of the object data using a public key associated with the object based on the data request to generate a first ciphertext; obtaining verification data based on the first ciphertext for verifying whether a ciphertext to be verified corresponds to the object data, wherein obtaining the verification data based on the first ciphertext comprises storing the first ciphertext in a blockchain to obtain a storage location of the first ciphertext in the blockchain and wherein the verification data comprises the storage location; and sending the verification data to the first computing device for the first computing device to execute a secure multiparty computation protocol for the object data with a third computing device based on the verification data.