mhurhangee/patent-ind-claim-en huggingface dataset:
Movement system for a closure structure with folding movement, such as a gate, door or window, wherein said closure structure comprises: - a first panel , which is extended along a first extension direction (X) between a first constrained flank , which is hinged to a support structure around a hinging axis (W), and a first free flank ; - a second panel , which is extended along a second extension direction (Y) between a second constrained flank , which is rotatably connected to the first free flank of said first panel , and a second free flank ; wherein said movement system comprises at least one transmission hinge intended to be placed to connect between the first free flank of said first panel and the second constrained flank of said second panel ; wherein said transmission hinge comprises: - a first wing intended to be fixed to the first free flank of said first panel ; - a movement lever rotatably connected to said first wing around a first rotation axis (R1); - a second wing , which is rotatably connected to said movement lever around a second rotation axis (R2) parallel to said first rotation axis (R1), and is intended to be fixed to the second constrained flank of said second panel ; wherein said movement system also comprises a motion transmission mechanism , which is mechanically connected to said movement lever and is intended to be kinematically connected to said first panel , in a manner such that, following the rotation of said first panel around said hinging axis (W), said motion transmission mechanism drives said movement lever to rotate around said first rotation axis (R1); wherein said transmission hinge comprises at least one gear with conjugated profiles , which is placed to connect between said first wing and said second wing and is configured for transmitting a rotary motion between said first wing and said second wing , in a manner such that, following the rotation of said movement lever around said first rotation axis (R1), said second wing is actuated by said gear with conjugated profiles to rotate around said second rotation axis (R2). - a first panel , which is extended along a first extension direction (X) between a first constrained flank , which is hinged to a support structure around a hinging axis (W), and a first free flank ; - a second panel , which is extended along a second extension direction (Y) between a second constrained flank , which is rotatably connected to the first free flank of said first panel , and a second free flank ; - a first wing intended to be fixed to the first free flank of said first panel ; - a movement lever rotatably connected to said first wing around a first rotation axis (R1); - a second wing , which is rotatably connected to said movement lever around a second rotation axis (R2) parallel to said first rotation axis (R1), and is intended to be fixed to the second constrained flank of said second panel ;
A sensing device for detecting an object in a blind spot in a surrounding environment of a mobile body, the sensing device comprising: a distance measurer configured to acquire distance information indicating a distance from the mobile body to the surrounding environment; a detector configured to detect the object in the blind spot; a controller configured to control operation of the detector; and a state receiver configured to acquire condition information indicating a state relating to slipperiness of the mobile body on a road surface on which the mobile body travels, wherein the controller is configured to: detect the blind spot in the surrounding environment, based on the distance information acquired by the distance measurer; and is further characterized in that : according to the acquired condition information by the state receiver, control sensing density to be higher as the slipperiness of the mobile body based on the acquired condition information is higher, the sensing density indicating precision at which the detector is caused to detect the object in the blind spot. a distance measurer configured to acquire distance information indicating a distance from the mobile body to the surrounding environment; a detector configured to detect the object in the blind spot; a controller configured to control operation of the detector; and a state receiver configured to acquire condition information indicating a state relating to slipperiness of the mobile body on a road surface on which the mobile body travels, wherein the controller is configured to: detect the blind spot in the surrounding environment, based on the distance information acquired by the distance measurer; and is further characterized in that : according to the acquired condition information by the state receiver, control sensing density to be higher as the slipperiness of the mobile body based on the acquired condition information is higher, the sensing density indicating precision at which the detector is caused to detect the object in the blind spot. detect the blind spot in the surrounding environment, based on the distance information acquired by the distance measurer; and is further characterized in that : according to the acquired condition information by the state receiver, control sensing density to be higher as the slipperiness of the mobile body based on the acquired condition information is higher, the sensing density indicating precision at which the detector is caused to detect the object in the blind spot.
A method of controlling a refrigerator, the method comprising: starting (S2) a first cooling cycle that cools a first storage compartment by operating a compressor and a first fan ; then determining (S3) whether a start condition of a second cooling cycle that cools a second storage compartment is satisfied; operating (S4) a second fan for the second storage compartment when the start condition of the second cooling cycle is satisfied; determining (S6) whether an output change condition of the second fan is satisfied while the second fan operates; and changing (S7) a speed of the second fan when the output change condition of the second fan is satisfied, characterized in that when a temperature of the first storage compartment is lower than a set temperature N between an upper limit temperature and a lower limit temperature of the first storage compartment , the output change condition of the second fan is satisfied. starting (S2) a first cooling cycle that cools a first storage compartment by operating a compressor and a first fan ; then determining (S3) whether a start condition of a second cooling cycle that cools a second storage compartment is satisfied; operating (S4) a second fan for the second storage compartment when the start condition of the second cooling cycle is satisfied; determining (S6) whether an output change condition of the second fan is satisfied while the second fan operates; and changing (S7) a speed of the second fan when the output change condition of the second fan is satisfied, characterized in that when a temperature of the first storage compartment is lower than a set temperature N between an upper limit temperature and a lower limit temperature of the first storage compartment , the output change condition of the second fan is satisfied.
A method of screening a skin cleanser for mildness, comprising: a) diluting with water a skin cleansing composition comprising a cleansing surfactant at a weight ratio of at least 5 parts water to 1 part cleansing surfactant forming a diluted cleansing composition; b) determining the amount of vesicles in the diluted cleansing composition; c) determining the amount of micelles in the diluted cleansing composition; and d) determining the volume ratio of vesicles to micelles in the diluted cleansing composition; wherein the skin cleansing composition is mild if the volume ratio of vesicles to micelles is greater than 50% at any dilution point of 5 parts water to 1 part cleansing surfactant or more. a) diluting with water a skin cleansing composition comprising a cleansing surfactant at a weight ratio of at least 5 parts water to 1 part cleansing surfactant forming a diluted cleansing composition; b) determining the amount of vesicles in the diluted cleansing composition; c) determining the amount of micelles in the diluted cleansing composition; and d) determining the volume ratio of vesicles to micelles in the diluted cleansing composition; wherein the skin cleansing composition is mild if the volume ratio of vesicles to micelles is greater than 50% at any dilution point of 5 parts water to 1 part cleansing surfactant or more.
Profile rail system which has at least one base rail and at least one top rail held thereon, wherein the at least one top rail has at least one covering wing , for covering at least one edge of a covering , and webs , and the at least one base rail has webs which are embraced by the webs of the top rail , and the webs of the base rail can grasp the webs of the at least one top rail , and the webs have latching means , and the mutual distance between the webs of the base rail - as viewed in cross section - is enlarged over their length in order to be able to pivot the at least one top rail , characterized in that at least one protrusion is integrally formed on the inside of at least one of the webs of the base rail , the protrusion being remote from the latching means of the webs and running obliquely upwards and at which the at least one web can be grasped in order to undo a latching between the latching means and to be able to remove the at least one top rail .
An X-ray imaging unit for X-ray imaging comprising a processor part , a gantry part , an X-ray source part for emitting X-rays, and an X-ray imaging detector part for receiving the X-rays from the source part, wherein the gantry part comprises the source and detector parts, and wherein the processor part is configured to control the source and detector parts in order to obtain an image data, and to determine at least one anatomical reference structure of a patient from the image data, characterized in that the processor part is configured to determine a position and a co-ordinate system of a head of the patient on a grounds of the at least one anatomical reference structure, to determine a rotational displacement (a) between co-ordinates systems of the unit and the patient, and to calculate, based on the determined rotational displacement, at least one scan movement of the source and detector parts. a processor part , a gantry part , an X-ray source part for emitting X-rays, and an X-ray imaging detector part for receiving the X-rays from the source part, wherein the gantry part comprises the source and detector parts, and wherein the processor part is configured to control the source and detector parts in order to obtain an image data, and to determine at least one anatomical reference structure of a patient from the image data, characterized in that the processor part is configured to determine a position and a co-ordinate system of a head of the patient on a grounds of the at least one anatomical reference structure, to determine a rotational displacement (a) between co-ordinates systems of the unit and the patient, and to calculate, based on the determined rotational displacement, at least one scan movement of the source and detector parts.
Blower for an internal combustion engine with an electric motor comprising a stator and a rotor which is attached to a drive shaft a housing which surrounds the electric motor a conveying channel configured in the housing , an intake port delimiting an intake channel , and an exhaust port delimiting an exhaust channel , an impeller which is attached to the drive shaft and via which fluid can be conveyed from the intake channel via the conveying channel to the outlet channel , wherein an electronics chamber is configured in the housing , in which an electronic board with electronic components is arranged, via which the electric motor can be controlled, wherein the housing comprises an opening , via which the electronics chamber is fluidically connected to the intake channel and wherein the electronics chamber is arranged on a side of the electric motor axially opposite to the impeller , characterized in that the housing delimiting the electronics chamber and the intake port comprise a common wall surface in which the opening for connecting the intake channel to the electronics chamber is configured, and in that the intake port extends at least along the axial length of the electric motor and the electronics chamber to the conveying channel . an electric motor comprising a stator and a rotor which is attached to a drive shaft a housing which surrounds the electric motor a conveying channel configured in the housing , an intake port delimiting an intake channel , and an exhaust port delimiting an exhaust channel , an impeller which is attached to the drive shaft and via which fluid can be conveyed from the intake channel via the conveying channel to the outlet channel , wherein an electronics chamber is configured in the housing , in which an electronic board with electronic components is arranged, via which the electric motor can be controlled, wherein the housing comprises an opening , via which the electronics chamber is fluidically connected to the intake channel and wherein the electronics chamber is arranged on a side of the electric motor axially opposite to the impeller , characterized in that the housing delimiting the electronics chamber and the intake port comprise a common wall surface in which the opening for connecting the intake channel to the electronics chamber is configured, and in that the intake port extends at least along the axial length of the electric motor and the electronics chamber to the conveying channel .
A coupling piece for connecting two containers stacked on top of each other aboard of ships, comprising: a first coupling projection , insertable and pre-lockable in a lower corner fitting of the upper container; a second coupling projection , adapted to engage in an upper corner fitting of the lower container in a coupled state; a bearing face at a locking head of the first coupling projection , which is adapted to rest on an inner rim at the lower corner fitting of the upper container in the coupled state; and a spacer of the first coupling projection , such that the coupling piece is insertable in the lower corner fitting of the upper container in a particular orientation only; characterized in that the spacer comprises a bearing face which is aligned with the bearing face of the first coupling projection and also adapted to rest on the inner rim of the lower corner fitting of the upper container in the coupled state, such that the bearing face of the first coupling projection and the bearing face of the spacer form a uniform bearing face for the locking head and the overall length (L) of the locking head is larger than the length (A) of the straight edges on the sides of an oblong hole in the corner fitting . a first coupling projection , insertable and pre-lockable in a lower corner fitting of the upper container; a second coupling projection , adapted to engage in an upper corner fitting of the lower container in a coupled state; a bearing face at a locking head of the first coupling projection , which is adapted to rest on an inner rim at the lower corner fitting of the upper container in the coupled state; and a spacer of the first coupling projection , such that the coupling piece is insertable in the lower corner fitting of the upper container in a particular orientation only; characterized in that the spacer comprises a bearing face which is aligned with the bearing face of the first coupling projection and also adapted to rest on the inner rim of the lower corner fitting of the upper container in the coupled state, such that the bearing face of the first coupling projection and the bearing face of the spacer form a uniform bearing face for the locking head and the overall length (L) of the locking head is larger than the length (A) of the straight edges on the sides of an oblong hole in the corner fitting .
Method to make a phosphorus modified zeolite comprising the following steps in this order, a) providing a zeolite comprising at least one ten members ring in the structure, optionally steaming said zeolite, b) mixing said zeolite of step a) with at least a component selected among one or more binders and shaping additives, then shaping said mixture, c) optionally making a ion-exchange, d) steaming the shaped catalyst, optionally before step c), e) introducing phosphorus on the catalyst to introduce at least 0.1 wt% of phosphorus, said introduction being made by impregnation or chemical vapor deposition, f) optionally introducing a alkaline earth or rare earth metal in the form of an oxide, optionally simultaneously with step e), g) optionally washing the catalyst, h) optionally calcinating the catalyst, i) steaming the catalyst, also referred to as the equilibration step. a) providing a zeolite comprising at least one ten members ring in the structure, optionally steaming said zeolite, b) mixing said zeolite of step a) with at least a component selected among one or more binders and shaping additives, then shaping said mixture, c) optionally making a ion-exchange, d) steaming the shaped catalyst, optionally before step c), e) introducing phosphorus on the catalyst to introduce at least 0.1 wt% of phosphorus, said introduction being made by impregnation or chemical vapor deposition, f) optionally introducing a alkaline earth or rare earth metal in the form of an oxide, optionally simultaneously with step e), g) optionally washing the catalyst, h) optionally calcinating the catalyst, i) steaming the catalyst, also referred to as the equilibration step.
Conduit connector having a housing which has a first terminal geometry which can be connected with a fluid conduit, and a second terminal geometry which can be connected with a counter element, wherein the first terminal geometry and the second terminal geometry are connected by a through channel in the housing and the housing has an outlet opening and a closing element is provided, wherein the closing element can be fixed in a first position, in which a connection between the outlet opening and the through channel is blocked, and the closing element can be moved into a second position, in which the outlet opening is connected with the through channel , and wherein of the parts closing element and housing one has at least one helically guided web and the other has a formation which interacts with the web , characterised in that the closing element and the housing in the first position have a latching connection with one another.
A breathing gases supply apparatus comprising: a Positive Airway Pressure, PAP, apparatus comprising a blower, the blower comprising a fan driven by an electric motor , a pressure sensor downstream to the fan, and a flow sensor downstream or upstream to the fan to measure the pressure and flow of gases breathed or supplied to a patient or user, a controller configured to receive input from the pressure and/or flow sensor indicative of patient breathing. characterised in that , a transmitter remote from the PAP apparatus and configured to communicate with the controller and transmit a control signal to an electronic apparatus , wherein the controller is configured to determine sleep in a patient based on the occurrence of a breathing pattern indicative of sleep, detected from the input received from the pressure and/or flow sensor and upon determining sleep, operate the transmitter to send a control signal to control an electronic apparatus, wherein the breathing pattern indicative of sleep is a sleep disorder breathing (SDB) event and preferably the SDB event is one or more of a flow limitation, hypopnea or apnea, and wherein the controller is configured to determine sleep based on the any one or more of the following: number of SDB events, duration of SDB events, spread of SDB events, or types of SDB events. a Positive Airway Pressure, PAP, apparatus comprising a blower, the blower comprising a fan driven by an electric motor , a pressure sensor downstream to the fan, and a flow sensor downstream or upstream to the fan to measure the pressure and flow of gases breathed or supplied to a patient or user, a controller configured to receive input from the pressure and/or flow sensor indicative of patient breathing. characterised in that , a transmitter remote from the PAP apparatus and configured to communicate with the controller and transmit a control signal to an electronic apparatus , wherein the controller is configured to determine sleep in a patient based on the occurrence of a breathing pattern indicative of sleep, detected from the input received from the pressure and/or flow sensor and upon determining sleep, operate the transmitter to send a control signal to control an electronic apparatus, wherein the breathing pattern indicative of sleep is a sleep disorder breathing (SDB) event and preferably the SDB event is one or more of a flow limitation, hypopnea or apnea, and wherein the controller is configured to determine sleep based on the any one or more of the following: number of SDB events, duration of SDB events, spread of SDB events, or types of SDB events. number of SDB events, duration of SDB events, spread of SDB events, or types of SDB events.
Glass container manufacturing line comprising a forming station for the containers and a system for providing marked containers , wherein the containers are transferred to the system when exiting the forming station , wherein the system for providing marked containers comprises: - a computerised control system storing at least one unique identifier for each container , to be applied to a respective container , - a printing unit comprising an ink delivery station , operatively connected with said computerised control system , able to print said identifier on each container , comprising a printing head configured for spraying said ink on an external surface of each container , - displacement means able to perform a relative rotation, translation or rotary translation between each container and the printing head during the printing of the identifier on the container , said displacement means being operatively connected with said computerised control system , wherein the forming station is positioned near to the printing unit , so that the containers exiting the forming station are pre-heated when exiting forming station and before entering the printing unit . - a computerised control system storing at least one unique identifier for each container , to be applied to a respective container , - a printing unit comprising an ink delivery station , operatively connected with said computerised control system , able to print said identifier on each container , comprising a printing head configured for spraying said ink on an external surface of each container , - displacement means able to perform a relative rotation, translation or rotary translation between each container and the printing head during the printing of the identifier on the container , said displacement means being operatively connected with said computerised control system ,