mhurhangee/patent-ind-claim-en huggingface dataset:
A tube pump comprising:- a base having a cylindrical supporting part protruding from one face side, the cylindrical supporting part having a hollow portion; a bearing placed on an outer periphery of the cylindrical supporting part ; a columnar inner peripheral surface provided on said one face side; a tube of which at least a portion is disposed along the inner peripheral surface ; a rotor disposed concentrically with the inner peripheral surface and having a coupling hole to accommodate the cylindrical supporting part and the bearing whereby the rotor is rotatably supported by the bearing while squeezing the tube between the rotor and the inner peripheral surface ; a drive unit attached on the other face side of the base and having a drive shaft passing through the base to the one face side to be coupled to the rotor; characterised by a cylindrical coupling member located in the hollow portion of the cylindrical supporting part ; a coupling hole is formed at a center of the rotor in which one end of the coupling member fits to couple to the rotor ; wherein the other end of the cylindrical coupling member has a fitting hole into which a distal end of the drive shaft fits when the drive shaft is inserted in the cylindrical coupling member to couple the drive shaft of the drive unit. a base having a cylindrical supporting part protruding from one face side, the cylindrical supporting part having a hollow portion; a bearing placed on an outer periphery of the cylindrical supporting part ; a columnar inner peripheral surface provided on said one face side; a tube of which at least a portion is disposed along the inner peripheral surface ; a rotor disposed concentrically with the inner peripheral surface and having a coupling hole to accommodate the cylindrical supporting part and the bearing whereby the rotor is rotatably supported by the bearing while squeezing the tube between the rotor and the inner peripheral surface ; a drive unit attached on the other face side of the base and having a drive shaft passing through the base to the one face side to be coupled to the rotor; characterised by a cylindrical coupling member located in the hollow portion of the cylindrical supporting part ; a coupling hole is formed at a center of the rotor in which one end of the coupling member fits to couple to the rotor ; wherein the other end of the cylindrical coupling member has a fitting hole into which a distal end of the drive shaft fits when the drive shaft is inserted in the cylindrical coupling member to couple the drive shaft of the drive unit.
Feed device (55A; 55B; 55C) for feeding a punch rivet to a punch riveting apparatus (2A; 2B; 2C), wherein the feed device (55A; 55B; 55C) has at least one receiving unit (56A; 56B; 56C) for receiving a punch rivet , and a movement unit (58A; 70) for moving the receiving unit (56A; 56B; 56C) between a loading point , in which the receiving unit (56A; 56B; 56C) is loaded with a punch rivet , and a joining point at which the punch rivet is to be set into the at least one component (6; 6, 7), wherein the receiving unit (56A; 56B; 56C) is provided, at its first end, which is to face a hold-down means (30A; 30B; 30C) of the punch riveting apparatus (2A; 2B; 2C), for coupling to the hold-down means (30A; 30B; 30C), wherein, for coupling to the hold-down means (30B; 30C), the first end has a mechanical configuration in the form of an oblique surface and/or of a form-fitting element for axisymmetrical positioning of the receiving unit (56A; 56B; 56C) on the hold-down means (30A; 30B; 30C) for carrying out a punch riveting operation in such a way that the hold-down means (30A; 30B; 30C) and the receiving element (56A; 56B; 56C) are positioned axisymmetrically to the same axis, wherein the mechanical configuration is configured to be complementary to the shape of the hold-down means (30B; 30C), wherein the form-fitting element is configured to form a releasable form-fitting engagement with the hold-down means (30B; 30C), and wherein the receiving unit (56A; 56B; 56C) is configured, at its second end, for placement on the at least one component (6; 6, 7), with the result that, for punch riveting, the punch riveting apparatus is placed with its hold-down means on the feed device (55A; 55B; 55C), which in turn is placed on the at least one component (6; 6, 7), and, during punch riveting, the receiving unit (56A; 56B; 56C) thereby forms an extension of the hold-down means (30A; 30B; 30C) for guiding the punch together with the hold-down means (30A; 30B; 30C) during punch riveting.
System for controlling patient recovery from anesthesia with an inhalation anesthesia agent, wherein the patient during the recovery is ventilated with a ventilator, the system comprising: - a breathing device for ventilating a patient, the breathing device comprising tubing to connect the breathing device to a patient's breathing circuit, - a ventilator connected to the breathing device to provide a pressurized breathing gas, - a ventilator controller connected to the ventilator to control the gas volume and breath frequency provided with the ventilator, the ventilator controller being adapted to detect patient spontaneous breaths and to reduce the ventilator support to match the measured CO 2 concentration in the end-expiration with a set target level, - a gas mixer and vaporizer for providing patient breathing gas, the gas mixer and vaporizer being connected to the ventilator, - a patient gas controller connected to the gas mixer and vaporizer for controlling the composition of the fresh patient breathing gas provided with the gas mixer and vaporizer, - a sensor connected to the patient gas controller , for providing at least monitored expiratory O 2 concentration for the patient, the patient gas controller being adapted to compare the expiratory O 2 concentration for the patient with a target concentration for said expiratory O 2 concentration and to provide instructions for the gas mixer to control the composition of the patient breathing gas to thereby allow the expiratory O 2 concentration to match said target O 2 concentration, wherein the sensor is adapted to determine the expiratory CO 2 concentration and is connected to the ventilator controller to allow the ventilator controller to control the ventilation pressure and frequency provided by means of the ventilator . - a breathing device for ventilating a patient, the breathing device comprising tubing to connect the breathing device to a patient's breathing circuit, - a ventilator connected to the breathing device to provide a pressurized breathing gas, - a ventilator controller connected to the ventilator to control the gas volume and breath frequency provided with the ventilator, the ventilator controller being adapted to detect patient spontaneous breaths and to reduce the ventilator support to match the measured CO 2 concentration in the end-expiration with a set target level, - a gas mixer and vaporizer for providing patient breathing gas, the gas mixer and vaporizer being connected to the ventilator, - a patient gas controller connected to the gas mixer and vaporizer for controlling the composition of the fresh patient breathing gas provided with the gas mixer and vaporizer, - a sensor connected to the patient gas controller , for providing at least monitored expiratory O 2 concentration for the patient, the patient gas controller being adapted to compare the expiratory O 2 concentration for the patient with a target concentration for said expiratory O 2 concentration and to provide instructions for the gas mixer to control the composition of the patient breathing gas to thereby allow the expiratory O 2 concentration to match said target O 2 concentration,
A method for scalable bitstream extraction suitable for use in video processing, comprising the steps of: receiving an embedded bitstream having at least two refinement layers, at least two temporal levels, and at least two spatial layers; and extracting bits from the embedded bitstream given a bit budget constraint to provide a quality enhancement to a video decoding quality, characterized in that the extraction is first performed from a lower spatial layer to a higher spatial layer for each temporal level in order of lower temporal level to higher temporal level in a given refinement layer and the extraction is repeated for each refinement layer from a lower refinement layer to a higher refinement layer; and the step of extracting bits is stopped before extracting bits from any next spatial layer, temporal level and refinement layer combination if the given bit budget is reached. receiving an embedded bitstream having at least two refinement layers, at least two temporal levels, and at least two spatial layers; and extracting bits from the embedded bitstream given a bit budget constraint to provide a quality enhancement to a video decoding quality, characterized in that the extraction is first performed from a lower spatial layer to a higher spatial layer for each temporal level in order of lower temporal level to higher temporal level in a given refinement layer and the extraction is repeated for each refinement layer from a lower refinement layer to a higher refinement layer; and the step of extracting bits is stopped before extracting bits from any next spatial layer, temporal level and refinement layer combination if the given bit budget is reached.
A tire comprising: a carcass toroidally extending between a pair of bead portions ; a spiral cord layer arranged on an outer side in a tire radial direction of a crown portion of the carcass and in which an upper layer and a lower layer are formed by spirally winding a reinforcing cord ; and an auxiliary belt layer (17, 27, 37a-d) arranged on the outer side in the tire radial direction of the spiral cord layer , wherein, at least at ends in a tire width direction of a region where the spiral cord layer and the auxiliary belt layer (17, 27, 37a-d) are laminated, a rubber gauge (G) between the spiral cord layer and the auxiliary belt layer is 0.5 mm to 14.0 mm, the rubber gauge (G) relating to a total thickness of a rubber existing between the reinforcing cords constituting the upper layer of the spiral cord layer and the belt cords constituting the auxiliary belt layer (17, 27, 37a-d), which total thickness is measured in a direction perpendicular to these layers, characterized by comprising a core-material cord layer between the upper layer and the lower layer of the spiral cord layer . a carcass toroidally extending between a pair of bead portions ; a spiral cord layer arranged on an outer side in a tire radial direction of a crown portion of the carcass and in which an upper layer and a lower layer are formed by spirally winding a reinforcing cord ; and an auxiliary belt layer (17, 27, 37a-d) arranged on the outer side in the tire radial direction of the spiral cord layer , wherein, at least at ends in a tire width direction of a region where the spiral cord layer and the auxiliary belt layer (17, 27, 37a-d) are laminated, a rubber gauge (G) between the spiral cord layer and the auxiliary belt layer is 0.5 mm to 14.0 mm, the rubber gauge (G) relating to a total thickness of a rubber existing between the reinforcing cords constituting the upper layer of the spiral cord layer and the belt cords constituting the auxiliary belt layer (17, 27, 37a-d), which total thickness is measured in a direction perpendicular to these layers, characterized by comprising a core-material cord layer between the upper layer and the lower layer of the spiral cord layer .
A fiber body forming apparatus comprising: an accumulating unit that has a release unit that releases a material containing a fiber and an accumulating member on which the material released from the release unit accumulates; a sheet substrate supply unit that supplies a sheet substrate to a position vertically below the release unit; and a control unit that controls operation of the accumulating unit and the sheet substrate supply unit, wherein the control unit controls operation of the accumulating unit and the sheet substrate supply unit to selectively execute a first mode for causing the material to accumulate on the accumulating member and a second mode for supplying the sheet substrate to the position vertically below the release unit and causing the material to accumulate on the sheet substrate. an accumulating unit that has a release unit that releases a material containing a fiber and an accumulating member on which the material released from the release unit accumulates; a release unit that releases a material containing a fiber and an accumulating member on which the material released from the release unit accumulates; a sheet substrate supply unit that supplies a sheet substrate to a position vertically below the release unit; and a control unit that controls operation of the accumulating unit and the sheet substrate supply unit, wherein the control unit controls operation of the accumulating unit and the sheet substrate supply unit to selectively execute a first mode for causing the material to accumulate on the accumulating member and a second mode for supplying the sheet substrate to the position vertically below the release unit and causing the material to accumulate on the sheet substrate.
A method for checking capacity for a multimedia session, the method being performed in a multimedia delivery service node of a multimedia network, and comprising the steps of: receiving , by the multimedia delivery service node, a capacity request for a multimedia session, the capacity request comprising a desired bandwidth, a requested Quality of Service Class Identifier, QCI, a requested time window and a desired location in terms of at least one service area, each service area being served by a plurality of radio base stations , wherein the capacity request further comprises a list of cell identifiers which are a subset of all cell identifiers sets of the at least one service area, the list of cell identifiers providing more detail with regard to the desired location; checking , by the multimedia delivery service node, whether there is sufficient capacity in each service area for the desired bandwidth and desired QCI during the desired time window of the request by reading available capacity in an aggregated capacity database , the aggregated capacity database comprising available bandwidth capacity on a service area level and by reading available radio capacity on a radio resource level in a resource capacity database ; and sending , by the multimedia delivery service node, a response based on whether there is sufficient capacity or not. receiving , by the multimedia delivery service node, a capacity request for a multimedia session, the capacity request comprising a desired bandwidth, a requested Quality of Service Class Identifier, QCI, a requested time window and a desired location in terms of at least one service area, each service area being served by a plurality of radio base stations , wherein the capacity request further comprises a list of cell identifiers which are a subset of all cell identifiers sets of the at least one service area, the list of cell identifiers providing more detail with regard to the desired location; checking , by the multimedia delivery service node, whether there is sufficient capacity in each service area for the desired bandwidth and desired QCI during the desired time window of the request by reading available capacity in an aggregated capacity database , the aggregated capacity database comprising available bandwidth capacity on a service area level and by reading available radio capacity on a radio resource level in a resource capacity database ; and sending , by the multimedia delivery service node, a response based on whether there is sufficient capacity or not.
Assembly module for a motor vehicle , with an optical sensor system which is suitable a) to monitor a detection region located outside the vehicle b) to trigger a signal for starting an authentication check between an ID transmitter and the motor vehicle in the event of recognition of a user in the detection region , c) to monitor an operating region located outside the vehicle and differing from the detection region , d) to provide an operating signal for the vehicle in the event of recognition of a user in the operating region , wherein a display element is provided to create the operating region , wherein the operating region is visible to the user , wherein the optical sensor system comprises a sensor and a light module with which light can be emitted in order to produce a detection region , wherein the sensor is designed to receive light from the detection region and the operating region , wherein the sensor system comprises a control unit which is suitable for evaluating data of the sensor . a) to monitor a detection region located outside the vehicle b) to trigger a signal for starting an authentication check between an ID transmitter and the motor vehicle in the event of recognition of a user in the detection region , c) to monitor an operating region located outside the vehicle and differing from the detection region , d) to provide an operating signal for the vehicle in the event of recognition of a user in the operating region ,
A live leaven, characterized in that it is in cuttable solid form and that it is based on flour of barley, buckwheat, lupine, millet, quinoa, einkorn or mixtures thereof.
A method to stir liquid metal contained into a steelmaking vessel , said liquid metal being surrounded by a slag layer , the method comprising injection of a gas, optionally containing a powder, by at least two injection means located at at least two different injection points along the depth of the liquid metal, the first injection point being located in the bottom half of the liquid metal and the second injection point being located at less than 500 millimetres below the interface between liquid metal and slag layer , said gas injection being performed while rotating injection means along the vertical axis of the vessel at a rotation speed comprised between 65 and 150rpm.
A method of friction stir channelling comprising rotating a probe of a friction stir channelling tool, the friction stir channelling tool comprising a probe for inserting into a workpiece or workpieces, the probe extending from, and being rotatably mounted in, a bore of a shoulder , the probe surface being formed so as to cause material of the workpiece around the probe to be plasticised and to cause the plasticised workpiece material to be moved towards the shoulder and into the bore of the shoulder upon rotation of the probe while the shoulder is in contact with the workpiece, and wherein the shoulder has at least one vent extending from outside the shoulder to the bore whereby the plasticised material can exit the bore through the vent; the method further comprising causing the rotating probe to enter a workpiece and bringing the shoulder of the tool into contact with the workpiece, the shoulder, or at least the radially outer portion of the shoulder in the case where the shoulder has radially inner and outer portions, not rotating relative to the workpiece, whereby rotation of the probe causes material of the workpiece around the probe to be plasticised and be drawn up the probe to enter the bore of the shoulder and exit through the vent or one of the vents in the shoulder; and traversing the tool along the workpiece under working conditions such that a channel is formed inside the workpiece.
A method performed by a network device , comprising: receiving data to be transmitted from a terminal device; receiving assistance information from the terminal device, wherein the assistance information indicates a geo-location of the terminal device from which the data to be transmitted is received; and determining the data type of the data to be transmitted, wherein in response to determining that the data type is Vehicle to everything, V2X, data: determining a first target area for transmitting the data based on the geo-location indicated by the assistance information, wherein the first target area is a geographical area having the terminal device from which the V2X data is received at the center, and transmitting the V2X data towards the first target area with beamforming; and in response to determining that the data type is not V2X data: determining a second target area for transmitting the data, wherein the second target area is different to the first target area, and transmitting the data towards the second target area with beamforming. receiving data to be transmitted from a terminal device; receiving assistance information from the terminal device, wherein the assistance information indicates a geo-location of the terminal device from which the data to be transmitted is received; and determining the data type of the data to be transmitted, wherein in response to determining that the data type is Vehicle to everything, V2X, data: determining a first target area for transmitting the data based on the geo-location indicated by the assistance information, wherein the first target area is a geographical area having the terminal device from which the V2X data is received at the center, and transmitting the V2X data towards the first target area with beamforming; and in response to determining that the data type is not V2X data: determining a second target area for transmitting the data, wherein the second target area is different to the first target area, and transmitting the data towards the second target area with beamforming. determining a first target area for transmitting the data based on the geo-location indicated by the assistance information, wherein the first target area is a geographical area having the terminal device from which the V2X data is received at the center, and transmitting the V2X data towards the first target area with beamforming; and in response to determining that the data type is not V2X data: determining a second target area for transmitting the data, wherein the second target area is different to the first target area, and transmitting the data towards the second target area with beamforming. determining a second target area for transmitting the data, wherein the second target area is different to the first target area, and transmitting the data towards the second target area with beamforming.
A formulation comprising at least one ozonized oil for use in the prevention and/or treatment of a tumour, preferably a malignant tumour, wherein said at least one ozonized oil has a content of ozonides from 500 to 1500 meq O 2 /kg.