mhurhangee/ep-ind-claims huggingface dataset:
Arterial cannula (1, 22) for the connection to a heart-lung machine for supplying a human patient with oxygen-rich blood, comprising a tubular body having a front end region for positioning in the region of the aortic arch of the patient, a main region, and a rear end region for the supply-side connection, wherein the tubular body has a lumen, wherein the tubular body is made of a flexible material, wherein the length of the tubular body is dimensioned such that the cannula can be placed in the region of the femoral artery of the patient and extends into the region of the aortic arch, wherein the tubular body serves to ensure a supply flow of oxygen-rich blood to the aortic arch, and wherein perforations are provided in the front end region of the tubular body, the front end region of the tubular body is at least partially pre-curved following the shape of the aortic arch, an insertion aid is provided which, for placement of the cannula, is located inside the tubular body and which is slidable into the tubular body or, after placement of the cannula, removable from the tubular body, characterized in that the curvature of the front end region of the tubular body adjusts automatically after placement of the cannula (1, 22) and removal of the insertion aid, and the tubular body has a single lumen. a tubular body having a front end region for positioning in the region of the aortic arch of the patient, a main region, and a rear end region for the supply-side connection, wherein the tubular body has a lumen, wherein the tubular body is made of a flexible material, wherein the length of the tubular body is dimensioned such that the cannula can be placed in the region of the femoral artery of the patient and extends into the region of the aortic arch, wherein the tubular body serves to ensure a supply flow of oxygen-rich blood to the aortic arch, and wherein perforations are provided in the front end region of the tubular body, the front end region of the tubular body is at least partially pre-curved following the shape of the aortic arch, an insertion aid is provided which, for placement of the cannula, is located inside the tubular body and which is slidable into the tubular body or, after placement of the cannula, removable from the tubular body, characterized in that the curvature of the front end region of the tubular body adjusts automatically after placement of the cannula (1, 22) and removal of the insertion aid, and the tubular body has a single lumen.
A seat, in particular a passenger seat, having - a support structure for absorbing forces which act on the seat; - an armrest, comprising a carrier arm and an arm support face which is secured to the carrier arm; - a guiding element which is provided on the support structure and on which the armrest is supported so as to be able to be linearly displaced for vertical adjustment; and - a fixing means by means of which the armrest can be releasably secured in a displacement position, wherein the seat structure is constructed as an outer carrier structure which is arranged outside a rear cushion and/or a seat cushion; wherein the support structure is constructed as a rigid carrier frame comprising at least one carrier rail (31, 32) which extends laterally along the backrest; wherein the armrest can be positioned in a lower position in which an arm support face of the armrest extends along a side face of a seat member of the seat; characterized in that the carrier rail (31, 32) extends laterally along a seat member of the seat and in that the carrier arm in the lower position is covered by the at least one carrier rail (31, 32) so that the carrier arm is no longer visible. - a support structure for absorbing forces which act on the seat; - an armrest, comprising a carrier arm and an arm support face which is secured to the carrier arm; - a guiding element which is provided on the support structure and on which the armrest is supported so as to be able to be linearly displaced for vertical adjustment; and - a fixing means by means of which the armrest can be releasably secured in a displacement position, wherein the seat structure is constructed as an outer carrier structure which is arranged outside a rear cushion and/or a seat cushion;
A method for monitoring a chemical reaction, comprising (a) starting the chemical reaction in a buffered solution equipped with a closed-loop device, wherein the buffered solution comprises a pH modulating agent; the closed-loop device comprises an electronic controller, a working electrode, a counter electrode, a reference electrode, and a sensing element, wherein the working electrode, the counter electrode, the reference electrode, and the sensing element are immersed in the buffered solution; and the chemical reaction causes a change of ionic strength of the buffered solution; (b) applying a current or voltage to the working electrode, whereupon the pH modulating agent causes a change of a pH value in a zone adjacent to the surface of the working electrode; (c) detecting the change of ionic strength of the buffered solution with the closed-loop device. (a) starting the chemical reaction in a buffered solution equipped with a closed-loop device, wherein the buffered solution comprises a pH modulating agent; the closed-loop device comprises an electronic controller, a working electrode, a counter electrode, a reference electrode, and a sensing element, wherein the working electrode, the counter electrode, the reference electrode, and the sensing element are immersed in the buffered solution; and the chemical reaction causes a change of ionic strength of the buffered solution; the buffered solution comprises a pH modulating agent; the closed-loop device comprises an electronic controller, a working electrode, a counter electrode, a reference electrode, and a sensing element, wherein the working electrode, the counter electrode, the reference electrode, and the sensing element are immersed in the buffered solution; and the chemical reaction causes a change of ionic strength of the buffered solution; (b) applying a current or voltage to the working electrode, whereupon the pH modulating agent causes a change of a pH value in a zone adjacent to the surface of the working electrode; (c) detecting the change of ionic strength of the buffered solution with the closed-loop device.
A communication method between a User Equipment, UE, and a Node B in a communication system, the communication method comprising: receiving, by the UE, a scheduling assignment, SA, for the UE comprising Information Elements, IEs, the SA including a resource allocation indication IE, a resource allocation IE and a Modulation and Coding Scheme, MCS, IE from the Node B; and characterized by transmitting, by the UE, data based on the SA to the Node B either over a single cluster of consecutive resource blocks or over multiple clusters, wherein the resource allocation indication IE indicates whether the transmission is over a single cluster of consecutive resource blocks or over multiple clusters, wherein each cluster of the multiple clusters comprises consecutive resource blocks, and wherein, if the transmission is over multiple clusters, the SA further comprises a frequency hopping flag. receiving, by the UE, a scheduling assignment, SA, for the UE comprising Information Elements, IEs, the SA including a resource allocation indication IE, a resource allocation IE and a Modulation and Coding Scheme, MCS, IE from the Node B; and characterized by transmitting, by the UE, data based on the SA to the Node B either over a single cluster of consecutive resource blocks or over multiple clusters, wherein the resource allocation indication IE indicates whether the transmission is over a single cluster of consecutive resource blocks or over multiple clusters, wherein each cluster of the multiple clusters comprises consecutive resource blocks, and wherein, if the transmission is over multiple clusters, the SA further comprises a frequency hopping flag.
A method for controlling an industrial robot using interactive commands given directly to the robot by a user, not via any human-machine interface, such as a teach pendant unit or tablet, the method comprising the steps of: - defining at least one interactive command, - defining a plurality of actions to be performed by the robot for the interactive command, wherein each action has been associated with a specified context of the robot, - determining a current context of the robot, - selecting an action to be performed based on the actions defined for the command and the current context of the robot, - recognizing an interactive command given by a user, and - performing the selected action, characterized by providing feedback to the user, prior to recognizing the interactive command, regarding the action to be performed for the interactive command in the current context. - defining at least one interactive command, - defining a plurality of actions to be performed by the robot for the interactive command, wherein each action has been associated with a specified context of the robot, - determining a current context of the robot, - selecting an action to be performed based on the actions defined for the command and the current context of the robot, - recognizing an interactive command given by a user, and - performing the selected action,
Drive device (20; 120) comprising: • a first housing part (22; 122) having an axis, which housing part can be connected to a stationary base part or to a movable component, • a second housing part which is arranged substantially coaxially with respect to the first housing part (22; 122) and can be connected to the other part in each case, i.e. the movable component or the stationary base part, and is guided on the first housing part (22; 122) indirectly or directly in the axial direction so as to be displaceable relative thereto, and • a drive unit (82; 182) which is received in the first housing part (22; 122) and has a motor assembly (30; 130) for bringing about a relative displacement movement of the first housing part (22; 122) and the second housing part, the motor assembly (30; 130) having a rotor (34; 134), which has a rotor shaft, two bearing elements (38, 40; 138, 140) for supporting the two ends of the rotor shaft, and two permanent magnet shells (42, 44; 142, 144) held on the bearing elements (38; 40; 138, 140), the unit formed by the rotor (34; 134),the two bearing elements (38, 40; 138, 140) and the two permanent magnet shells (42, 44; 142, 144) being received directly in the first housing part (22; 122), and the first housing part (22; 122), at least in a longitudinal portion associated with the motor assembly (30; 130), being made of a magnetisable material, at least one of the bearing elements (38, 40) having at least one retaining projection (projection defining the retaining recesses 38b, 40b) for at least one of the permanent magnet shells (42, 44), characterised in that a wedge surface (238b1, 240b1) of the at least one retaining projection (238b, 240b) cooperates with an associated counter wedge surface (242b, 242c) of the at least one permanent magnet shell (242, 244), which counter wedge surface preferably extends over a height portion of the permanent magnet shell, which portion adjoins the outer surface of the at least one permanent magnet shell, the wedge surface (238b1, 240b1) and the counter wedge surface (242b, 242c) preferably extending increasingly radially outwards, in a direction which points towards the other axial longitudinal end of the at least one permanent magnet shell in each case. • a first housing part (22; 122) having an axis, which housing part can be connected to a stationary base part or to a movable component, • a second housing part which is arranged substantially coaxially with respect to the first housing part (22; 122) and can be connected to the other part in each case, i.e. the movable component or the stationary base part, and is guided on the first housing part (22; 122) indirectly or directly in the axial direction so as to be displaceable relative thereto, and • a drive unit (82; 182) which is received in the first housing part (22; 122) and has a motor assembly (30; 130) for bringing about a relative displacement movement of the first housing part (22; 122) and the second housing part,
A resin material measuring method which obtains a prescribed amount of a resin material by measuring liquid resin material, the resin material measuring method comprising: charging the resin material having a fluidity into an internal space of a cylinder using a cylinder-piston mechanism which includes: the cylinder having a discharge aperture at one end and the internal space being constant in cross-sectional area; and a piston which is inserted in the internal space of the cylinder; determining a necessary movement stroke length of the piston corresponding to the resin material of a prescribed volume according to a relationship between the volume of the resin material and the cross-sectional area of the internal space of the cylinder and the movement stroke length of the piston; discharging the resin material from the cylinder through the discharge aperture by moving the piston by the determined movement stroke length; and cutting the discharged resin material from the resin material located inside the cylinder, characterized in that the piston is moved in the vertical direction, and the resin material is discharged upward from the discharge aperture of the cylinder. charging the resin material having a fluidity into an internal space of a cylinder using a cylinder-piston mechanism which includes: the cylinder having a discharge aperture at one end and the internal space being constant in cross-sectional area; and a piston which is inserted in the internal space of the cylinder; determining a necessary movement stroke length of the piston corresponding to the resin material of a prescribed volume according to a relationship between the volume of the resin material and the cross-sectional area of the internal space of the cylinder and the movement stroke length of the piston; discharging the resin material from the cylinder through the discharge aperture by moving the piston by the determined movement stroke length; and cutting the discharged resin material from the resin material located inside the cylinder, characterized in that the piston is moved in the vertical direction, and the resin material is discharged upward from the discharge aperture of the cylinder.
A method of configuring a first Flex Ethernet, FlexE, node, the method comprising: receiving first data from a second FlexE node in time slots over at least one physical layer connection, the first data including overhead identifying assignments of the time slots to one or more client flows in the first data; assigning time slots for transmission of second data from the first FlexE node to the second FlexE node based on the assignments of time slots in which the first data is received. receiving first data from a second FlexE node in time slots over at least one physical layer connection, the first data including overhead identifying assignments of the time slots to one or more client flows in the first data; assigning time slots for transmission of second data from the first FlexE node to the second FlexE node based on the assignments of time slots in which the first data is received.
Use of a Streptococcus thermophilus strain with a deficiency in glucose metabolism for improving growth of a Lactobacillus strain in a process for producing a fermented milk product, wherein the Lactobacillus strain is selected from the group consisting of Lactobacillus delbrueckii subsp. bulgaricus and Lactobacillus paracasei, and wherein at the start of the fermentation the ratio of CFU/g of the Streptococcus thermophilus strain to CFU/g of the Lactobacillus strain is at least 50.
An antenna system, comprising a first antenna (150, 220), a second antenna (160, 230), a radio frequency unit (110, 210), a first modulator, a second modulator, and a divider, wherein the first antenna (150, 220) is capable of rotating around a first rotation axis to adjust a first mechanical downtilt of the first antenna (150, 220), and the second antenna (160, 230) is capable of rotating around a second rotation axis to adjust a second mechanical downtilt of the second antenna (160, 230), wherein the radio frequency unit (110, 210) is configured to generate a to-be-sent first radio frequency signal; the divider is configured to divide the first radio frequency signal into a first radio frequency sub-signal and a second radio frequency sub-signal; the first modulator is configured to perform first processing on the first radio frequency sub-signal, to adjust a first electrical downtilt of the first radio frequency sub-signal, wherein the first electrical downtilt is determined based on a target downtilt corresponding to the first radio frequency signal and the first mechanical downtilt; the second modulator is configured to perform second processing on the second radio frequency sub-signal, to adjust a second electrical downtilt of the second radio frequency sub-signal, wherein the second electrical downtilt is determined based on the target downtilt corresponding to the first radio frequency signal and the second mechanical downtilt; the first antenna (150, 220) is configured to transmit a first radio frequency sub-signal on which the first processing is performed; and the second antenna (160, 230) is configured to transmit a second radio frequency sub-signal on which the second processing is performed. the radio frequency unit (110, 210) is configured to generate a to-be-sent first radio frequency signal; the divider is configured to divide the first radio frequency signal into a first radio frequency sub-signal and a second radio frequency sub-signal; the first modulator is configured to perform first processing on the first radio frequency sub-signal, to adjust a first electrical downtilt of the first radio frequency sub-signal, wherein the first electrical downtilt is determined based on a target downtilt corresponding to the first radio frequency signal and the first mechanical downtilt; the second modulator is configured to perform second processing on the second radio frequency sub-signal, to adjust a second electrical downtilt of the second radio frequency sub-signal, wherein the second electrical downtilt is determined based on the target downtilt corresponding to the first radio frequency signal and the second mechanical downtilt; the first antenna (150, 220) is configured to transmit a first radio frequency sub-signal on which the first processing is performed; and the second antenna (160, 230) is configured to transmit a second radio frequency sub-signal on which the second processing is performed.
Apparatus for transporting panel-form articles, comprising gripping arms, wherein the gripping arms each bear at least one suction cup which can be subjected to negative pressure, characterized in that a measuring and separating apparatus for stripping off adhering panels from the panel which is to be transported is fitted on at least one gripping arm, wherein the measuring and separating apparatus has jaws (16, 17), which can be displaced via a first and a second carriage, forming measuring clamps, and the second jaw has a separating slide which, in the rest state, engages in a recess of the first jaw.
A cutting tool key (22, 122), having a key central axis about which the cutting tool key (22, 122) is rotatable in a rotational locking direction (R L), the key central axis extending in a forward (D F) to rearward direction (D R), the cutting tool key (22, 122) comprising: a handle component, for actuating rotation of the cutting tool key (22, 122) about the key central axis; a locking member attached to the handle component and extending therefrom in the rearward direction (D R) along the key central axis, the locking member comprising a head receptacle portion at a rear end thereof, for receipt of a cutting head; and a sleeve member attached to the locking member; characterised in that the sleeve member is elastically flexible and circumferentially surrounds the head receptacle portion. a handle component, for actuating rotation of the cutting tool key (22, 122) about the key central axis; a locking member attached to the handle component and extending therefrom in the rearward direction (D R) along the key central axis, the locking member comprising a head receptacle portion at a rear end thereof, for receipt of a cutting head; and a sleeve member attached to the locking member; characterised in that the sleeve member is elastically flexible and circumferentially surrounds the head receptacle portion.
A method of supporting communication performed by a wireless device comprising a radio subsystem, a connection manager, at least one application (224a-2241), a host interface, a host processor and at least one profile, the method comprising: communicating between the connection manager and the at least one application (224a-224l) via the host interface, wherein the at least one application (224a-224l) is executed within the host processor, and wherein the connection manager is embedded within the radio subsystem, the method characterised by the at least one profile including connectivity preferences for the wireless device; and by the connection manager receiving at least one connection request sent by the at least one application (224a-224l); dynamically selecting the at least one profile based on predetermined criteria in response to receiving the at least one connection request; generating operating rules for the wireless device based on the at least one profile; selecting at least one radio (290a-290r) to be mapped to the at least one application (224a-224l) based on the determined operating rules; and providing the at least one selected radio (290a-290r) to the at least one application (224a-224l). communicating between the connection manager and the at least one application (224a-224l) via the host interface, wherein the at least one application (224a-224l) is executed within the host processor, and wherein the connection manager is embedded within the radio subsystem, the method characterised by the at least one profile including connectivity preferences for the wireless device; and by the connection manager receiving at least one connection request sent by the at least one application (224a-224l); dynamically selecting the at least one profile based on predetermined criteria in response to receiving the at least one connection request; generating operating rules for the wireless device based on the at least one profile; selecting at least one radio (290a-290r) to be mapped to the at least one application (224a-224l) based on the determined operating rules; and providing the at least one selected radio (290a-290r) to the at least one application (224a-224l).