mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a mobile receiving system, wherein a receiver is used to detect and store, in one cycle, the transmitters able to be received in a predefinable frequency band using a first receiving method, to enter the stored transmitters into a list and to determine the number of stored transmitters, wherein this process is repeated in a further cycle if the detection of the transmitters able to be received in the predefinable frequency band has been completed in the previous cycle, wherein the number of stored transmitters from the one cycle is compared with the number of stored transmitters from the further cycle and, if the two numbers of stored transmitters differ from one another by a predefinable value, a changeover takes place from the first receiving method to another receiving method, wherein the other receiving method is based on different reception criteria than the first receiving method, wherein the reception level serves as a reception criterion.
System comprising: a stretch blow moulding device for blowing a container , in particular a bottle; a cooling device for cooling the blown container using dry ice particles or carbon dioxide gas; and a coating device for coating the cooled container , in particular inside the container; characterised in that the system comprises a transport path for transporting the container from the stretch blow moulding device to the cooling device and subsequently to the coating device ; and the coating device having a discharge path for discharging the coated container . a stretch blow moulding device for blowing a container , in particular a bottle; a cooling device for cooling the blown container using dry ice particles or carbon dioxide gas; and a coating device for coating the cooled container , in particular inside the container; characterised in that the system comprises a transport path for transporting the container from the stretch blow moulding device to the cooling device and subsequently to the coating device ; and the coating device having a discharge path for discharging the coated container .
Method for aligning a metal sheet while feeding the metal sheet to a machining station , in particular to a punch press, wherein the feeding takes place in a first direction (Y axis) of two orthogonal directions (X axis and Y axis), wherein in a first alignment step the alignment of the metal sheet takes place in the first direction (Y axis) and in a second step the alignment takes place in the second direction (X axis), in order to achieve a predetermined alignment position of the metal sheet, and wherein the metal sheet is gripped for feeding by a gripping arrangement and moved to the machining station and introduced into the machining station and is additionally moved back and forth in the machining station in the second direction for producing the desired machining image, in particular punching image, wherein the alignment of the metal sheet in the second direction (X axis) is effected by the following steps: - determination of the position of the metal sheet in the second direction (X axis) by a sensor means ; - detection of the deviation of the metal sheet from its predetermined alignment position in the second direction by evaluating the sensor signal with a control unit ; and - correction of the deviation of the alignment position from the predetermined alignment position in the second direction (X axis) after gripping of the metal sheet by means of the gripping arrangement, in that the gripping arrangement, controlled by the control unit, carries out the movement of the metal sheet into the predetermined alignment position in the second direction, in particular combined with the feed movement of the metal sheet to the machining station, characterized in that , before gripping the sheet, the position of the gripping arrangement is adapted to the detected position of the sheet deviating in the second direction by displacing the gripping arrangement correspondingly in the second direction in order to effect the gripping of the sheet at the position intended for this purpose. - determination of the position of the metal sheet in the second direction (X axis) by a sensor means ; - detection of the deviation of the metal sheet from its predetermined alignment position in the second direction by evaluating the sensor signal with a control unit ; and - correction of the deviation of the alignment position from the predetermined alignment position in the second direction (X axis) after gripping of the metal sheet by means of the gripping arrangement, in that the gripping arrangement, controlled by the control unit, carries out the movement of the metal sheet into the predetermined alignment position in the second direction, in particular combined with the feed movement of the metal sheet to the machining station, characterized in that , before gripping the sheet, the position of the gripping arrangement is adapted to the detected position of the sheet deviating in the second direction by displacing the gripping arrangement correspondingly in the second direction in order to effect the gripping of the sheet at the position intended for this purpose.
Pump intended to be immersed in a fluid, comprising: - a fixed housing provided with a top part forming a propulsion chamber propelling fluid towards the top end, and a bottom part forming a stator and attached in a fixed manner to the top part, - at least one side opening between the top part and the bottom part, and forming an inlet chamber for the fluid to enter from the exterior towards the propulsion chamber, characterized in that the pump also comprises a motor unit formed by: - said stator in which first magnetic elements are arranged, - a rotor in the form of a bell at least partially covering the stator head and comprising second magnetic elements intended for magnetic coupling with the first magnetic elements of the stator, the bell having at least one opening in its top part so as to create a reverse flow of the fluid from the inlet chamber right up to the base of the stator via a passage between the rotor and the stator, - a transmission shaft comprising at least one connecting arm making it possible to hold the bell above the stator, the axis of the transmission shaft being superposed with the axis of rotation of the bell - side vanes arranged between the bell and the transmission shaft and intended to guide the reverse flow in said passage between the rotor and the stator. - a fixed housing provided with a top part forming a propulsion chamber propelling fluid towards the top end, and a bottom part forming a stator and attached in a fixed manner to the top part, - at least one side opening between the top part and the bottom part, and forming an inlet chamber for the fluid to enter from the exterior towards the propulsion chamber, - said stator in which first magnetic elements are arranged, - a rotor in the form of a bell at least partially covering the stator head and comprising second magnetic elements intended for magnetic coupling with the first magnetic elements of the stator, the bell having at least one opening in its top part so as to create a reverse flow of the fluid from the inlet chamber right up to the base of the stator via a passage between the rotor and the stator, - a transmission shaft comprising at least one connecting arm making it possible to hold the bell above the stator, the axis of the transmission shaft being superposed with the axis of rotation of the bell - side vanes arranged between the bell and the transmission shaft and intended to guide the reverse flow in said passage between the rotor and the stator.
A method of pressurising or depressurising a shock absorber of an aircraft landing gear, comprising: determining the weight of the aircraft; measuring an ambient temperature around the shock absorber; calculating a target length of the shock absorber based on the ambient temperature and the determined weight of the aircraft; and pressurising or depressurising the shock absorber to the target length, wherein the step of determining the weight of the aircraft comprises: increasing the internal pressure of the shock absorber until the shock absorber begins to extend in length; then measuring the internal pressure of the shock absorber; and then calculating the weight of the aircraft based on the measured internal pressure and a known piston area of the shock absorber. determining the weight of the aircraft; measuring an ambient temperature around the shock absorber; calculating a target length of the shock absorber based on the ambient temperature and the determined weight of the aircraft; and pressurising or depressurising the shock absorber to the target length, increasing the internal pressure of the shock absorber until the shock absorber begins to extend in length; then measuring the internal pressure of the shock absorber; and then calculating the weight of the aircraft based on the measured internal pressure and a known piston area of the shock absorber.
A water tank assembly for a robot vacuum cleaner , the robot vacuum cleaner comprising a main unit , two driving wheels and a universal wheel , the two driving wheels being disposed at two sides of a center part of the main unit , the water tank assembly comprising a water tank and characterised in that , the water tank assembly further comprising a support part disposed to and protruded from a bottom of the water tank , the universal wheel and the water tank assembly being adapted to be disposed to the main unit and located at two sides of a connection line of centers of the two driving wheels respectively; when the robot vacuum cleaner is located on a horizontal ground, the universal wheel and the two driving wheels contacting the ground, and the support part being spaced from the ground with a preset distance value; and when the robot vacuum cleaner inclines towards the water tank assembly , the support part contacting the ground so as to support the robot vacuum cleaner . the water tank assembly comprising a water tank and characterised in that , the water tank assembly further comprising a support part disposed to and protruded from a bottom of the water tank , the universal wheel and the water tank assembly being adapted to be disposed to the main unit and located at two sides of a connection line of centers of the two driving wheels respectively; when the robot vacuum cleaner is located on a horizontal ground, the universal wheel and the two driving wheels contacting the ground, and the support part being spaced from the ground with a preset distance value; and when the robot vacuum cleaner inclines towards the water tank assembly , the support part contacting the ground so as to support the robot vacuum cleaner .
A customized cushioning sole system for an article of footwear, the system comprising: a sole structure having a lattice structure, the lattice structure having an upper side and a bottom side; the upper side having a geometry corresponding to the contours of a foot, wherein the lattice structure comprises a plurality of interstices, the plurality of interstices including a first interstice; a first aperture defined by a wall extending from the upper side to the bottom side and disposed proximate to the first interstice and, wherein the first aperture tapers in width from the upper side to the bottom side, the first aperture being in fluid communication with the first interstice; and a first spherical support component disposed in the first aperture. a sole structure having a lattice structure, the lattice structure having an upper side and a bottom side; the upper side having a geometry corresponding to the contours of a foot, wherein the lattice structure comprises a plurality of interstices, the plurality of interstices including a first interstice; a first aperture defined by a wall extending from the upper side to the bottom side and disposed proximate to the first interstice and, wherein the first aperture tapers in width from the upper side to the bottom side, the first aperture being in fluid communication with the first interstice; and a first spherical support component disposed in the first aperture.
A fixing device comprising a. a fixing member for fixing two parts together and provided with a bearing head , b. an integrated first sensor (7; 7') integrated inside the fixing device and provided with a first detector (8; 8') of the mechanical force to which the fixing member is subjected, the first detector (8; 8') being mounted in contact with the fixing member , and c. an integrated connecting component which is integrated inside the fixing device and electrically connected to the first sensor , which is configured to transmit a measurement of the mechanical force provided by the first sensor and which is mounted on the fixing member , wherein d. the fixing member comprises a body which is mounted on the bearing head , which extends along a longitudinal axis (A) protruding from the bearing head and which is a hollow cylinder. a. a fixing member for fixing two parts together and provided with a bearing head , b. an integrated first sensor (7; 7') integrated inside the fixing device and provided with a first detector (8; 8') of the mechanical force to which the fixing member is subjected, the first detector (8; 8') being mounted in contact with the fixing member , and c. an integrated connecting component which is integrated inside the fixing device and electrically connected to the first sensor , which is configured to transmit a measurement of the mechanical force provided by the first sensor and which is mounted on the fixing member , wherein d. the fixing member comprises a body which is mounted on the bearing head , which extends along a longitudinal axis (A) protruding from the bearing head and which is a hollow cylinder.
Method of high-resolution imaging of a structure marked with luminescence markers in a sample , - wherein light, which has an effect on the emission of luminescence light by the luminescence markers , is directed onto the sample with an intensity distribution having a zero point neighboured by intensity maxima , - wherein partial areas to be scanned of the sample are scanned with the zero point , and - wherein luminescence light emitted out of the area of the zero point is registered and assigned to the location of the zero point in the sample , characterised in - that several copies of an object of interest are each arranged overlapping with one of the partial areas to be scanned of the sample , - that the several copies of the object of interest are subjected to varied surrounding conditions to monitor reactions of the object of interest resulting therefrom, wherein the individual partial areas of the sample are scanned during, and/or prior to and after the varied surrounding conditions with the respective zero point , and - that dimensions of the partial areas to be scanned of the sample are delimited in at least one direction, in which the intensity maxima are neighbouring the zero point in the sample, such that they are not larger than 75 % of a distance (D 0 ) of the intensity maxima in this direction. - wherein light, which has an effect on the emission of luminescence light by the luminescence markers , is directed onto the sample with an intensity distribution having a zero point neighboured by intensity maxima , - wherein partial areas to be scanned of the sample are scanned with the zero point , and - wherein luminescence light emitted out of the area of the zero point is registered and assigned to the location of the zero point in the sample , characterised in - that several copies of an object of interest are each arranged overlapping with one of the partial areas to be scanned of the sample , - that the several copies of the object of interest are subjected to varied surrounding conditions to monitor reactions of the object of interest resulting therefrom, wherein the individual partial areas of the sample are scanned during, and/or prior to and after the varied surrounding conditions with the respective zero point , and - that dimensions of the partial areas to be scanned of the sample are delimited in at least one direction, in which the intensity maxima are neighbouring the zero point in the sample, such that they are not larger than 75 % of a distance (D 0 ) of the intensity maxima in this direction.
A distribution unit , in particular for air distribution in ventilation systems, comprising a box-shaped casing having walls which delimit an internal chamber ; the casing having an inlet , formed in a first wall of the casing , and a plurality of outlets , formed in one or more second walls of the casing ; wherein the unit comprises a deflector assembly housed inside the casing in the chamber ; the deflector assembly comprising a plurality of fins positioned in front of the inlet and centrally in the chamber and arranged about a central axis (A) and extending parallel to the axis (A) between a pair of opposite walls of the casing ; the fins being arranged in pairs of fins , the fins of each pair being substantially aligned with each other in front of the inlet and symmetrically positioned on opposite sides of a middle plane (P) containing the axis (A) and perpendicular to the inlet ; a first pair of front fins being positioned in front of the inlet , and a second pair of rear fins being positioned behind the front fins and farther from the inlet than the front fins ; the front fins being shaped so as to divert a fluid flow coming from the inlet at least partly towards the plane (P); the unit being characterised in that the fins are positioned in a central region of the chamber and have cross sections which are inscribed in a circle (C) which is perpendicular to the axis (A), the fins having respective sides arranged along said circle (C).
Ventilator for mechanical ventilation, comprising an inspiratory branch (Ri) configured to receive an air-oxygen mixture, an expiratory branch (Re), and an expiratory valve arranged in the expiratory branch (Re), wherein said ventilator comprises a flow control and conditioning equipment to which the inspiratory branch (Ri) and the expiratory branch (Re) are connected, configured to supply a continuous flow (Fc) of said air-oxygen mixture to a patient (P), where said continuous flow (Fc) is kept constant during inspiration and expiration of the patient (P), so that when the expiratory valve opens there is a collision of the continuous flow (Fc) with the expiratory flow (Fe) coming from the patient (P), causing an expiratory brake and an intrinsic PEEP end-expiratory pressure; characterized in that the flow control and conditioning equipment presents a tubular configuration comprising a plurality of connections communicated pneumatically; and in that said flow control and conditioning equipment comprises: - an inspiratory inlet port configured to connect to the inspiratory branch (Ri) and receive the air/oxygen mixture; - an endotracheal outlet port , aligned with the inspiratory inlet port , configured to connect to an endotracheal tube (T) of a patient (P) and deliver a continuous flow (Fc) of the air-oxygen mixture to said patient (P); and - an expiratory outlet port , arranged in a "T" between the inspiratory inlet port and the endotracheal outlet port , configured to connect to the expiratory branch (Re) and allow the expiratory flow (Fe) to exit from the patient (P). - an inspiratory inlet port configured to connect to the inspiratory branch (Ri) and receive the air/oxygen mixture; - an endotracheal outlet port , aligned with the inspiratory inlet port , configured to connect to an endotracheal tube (T) of a patient (P) and deliver a continuous flow (Fc) of the air-oxygen mixture to said patient (P); and - an expiratory outlet port , arranged in a "T" between the inspiratory inlet port and the endotracheal outlet port , configured to connect to the expiratory branch (Re) and allow the expiratory flow (Fe) to exit from the patient (P).
An outdoor unit including a refrigerant pipe connecting valve having a refrigerant charging service port characterized in that the refrigerant charging service port is sealed by a hexagonal sealing nut , the hexagonal sealing nut being removable when charging refrigerant and the outdoor unit comprising an indication cover as attention attracting means comprising: an indication portion indicating at least one of type of refrigerant that is used and a precautions text, and detachably covering a hexagonal-prism-shaped portion of the hexagonal sealing nut , a ring-shaped attachment portion that is attached to a base portion of the refrigerant pipe connecting port of the refrigerant pipe connecting valve , and an extension portion that connects the indication portion and the attachment portion to each other. characterized in that the refrigerant charging service port is sealed by a hexagonal sealing nut , the hexagonal sealing nut being removable when charging refrigerant and the outdoor unit comprising an indication cover as attention attracting means comprising: an indication portion indicating at least one of type of an indication portion indicating at least one of type of refrigerant that is used and a precautions text, and detachably covering a hexagonal-prism-shaped portion of the hexagonal sealing nut , a ring-shaped attachment portion that is attached to a base portion of the refrigerant pipe connecting port of the refrigerant pipe connecting valve , and an extension portion that connects the indication portion and the attachment portion to each other. a ring-shaped attachment portion that is attached to a base portion of the refrigerant pipe connecting port of the refrigerant pipe connecting valve , and an extension portion that connects the indication portion and the attachment portion to each other.
A method operational on an access terminal for facilitating device authentication of the access terminal while roaming within a visited network , comprising: obtaining a validation key associated with an access terminal identifier of the access terminal ; provisioning the validation key into a secured portion of a memory circuit of the access terminal ; generating a device authentication message including the access terminal identifier and authentication data generated at least in part using the validation key ; obtaining limited access to the visited network for the purposes of transmitting the device authentication message through the visited network to a home validation server of a home network of the access terminal and then transmitting the device authentication message through the visited network to the home validation server to authenticate the access terminal as an authorized access terminal for accessing the visited network ; receiving a notification granting or denying the access terminal access to the visited network based on validation of the device authentication message; generating a subscriber authentication message including information associated with the subscriber; and transmitting the subscriber authentication message for verifying that the subscriber is authorized for network access. obtaining a validation key associated with an access terminal identifier of the access terminal ; provisioning the validation key into a secured portion of a memory circuit of the access terminal ; generating a device authentication message including the access terminal identifier and authentication data generated at least in part using the validation key ; obtaining limited access to the visited network for the purposes of transmitting the device authentication message through the visited network to a home validation server of a home network of the access terminal and then transmitting the device authentication message through the visited network to the home validation server to authenticate the access terminal as an authorized access terminal for accessing the visited network ; receiving a notification granting or denying the access terminal access to the visited network based on validation of the device authentication message; generating a subscriber authentication message including information associated with the subscriber; and transmitting the subscriber authentication message for verifying that the subscriber is authorized for network access.