mhurhangee/ep-ind-claims huggingface dataset:
A fluid mixing machine and particularly a continuously operating and fluid-respiring fluid mixing machine, comprising at least one main mixing chamber with at least one main mixing space, the cross section of which narrows along a main direction of extent (R x2) from an inlet end with a large diameter (D 6) to an outlet end with a small diameter (D 8), in which at the outlet end a nozzle the cross section of which widens in the main direction of extent (R x2) in the main direction of extent (R x2) is provided and in which at the inlet end a locking part is provided that locks the main mixing space in particular at the front, wherein the locking end has the following: at least one quaternary fluid inlet flowing in particular axially into the main mixing space, in order to convey at least one quaternary fluid to the main mixing space,and at least one tertiary fluid inlet flowing tangentially into the main mixing space, in order to convey tangentially to the main mixing space at least one tertiary fluid, in which the tertiary fluid inlet has at least one pre-mixing chamber, with a pre-mixing space the cross section of which narrows along a main direction of extent (R x300) from an inlet end, with a large diameter, to an outlet end, with a small diameter, and in which the pre-mixing chamber has the following: at least one secondary flow inlet flowing in particular axially into the pre-mixing space, in order to convey at least one secondary fluid to the main mixing space and at least one primary fluid inlet flowing tangentially into the pre-mixing space, in order to convey at least one primary fluid to the pre-mixing space. at least one quaternary fluid inlet flowing in particular axially into the main mixing space, in order to convey at least one quaternary fluid to the main mixing space,and at least one tertiary fluid inlet flowing tangentially into the main mixing space, in order to convey tangentially to the main mixing space at least one tertiary fluid, in which the tertiary fluid inlet has at least one pre-mixing chamber, with a pre-mixing space the cross section of which narrows along a main direction of extent (R x300) from an inlet end, with a large diameter, to an outlet end, with a small diameter, and in which the pre-mixing chamber has the following: at least one secondary flow inlet flowing in particular axially into the pre-mixing space, in order to convey at least one secondary fluid to the main mixing space and at least one primary fluid inlet flowing tangentially into the pre-mixing space, in order to convey at least one primary fluid to the pre-mixing space. at least one secondary flow inlet flowing in particular axially into the pre-mixing space, in order to convey at least one secondary fluid to the main mixing space and at least one primary fluid inlet flowing tangentially into the pre-mixing space, in order to convey at least one primary fluid to the pre-mixing space.
A refrigerant distributor comprising a double-pipe structure including an inner pipe and an outer pipe, characterised in that: - a plurality of outer pipes are disposed, each of the plurality of outer pipes being the outer pipe, - a space is formed between adjacent ones of the plurality of outer pipes, the inner pipe is disposed to be continuous through the plurality of outer pipes, - a plurality of heat-transfer tubes are arrayed in a direction in which the outer pipe extends, and connected to the outer pipe, and - the refrigerant distributor suitable for distributing refrigerant flowing into between the inner pipe and the outer pipe to the plurality of heat-transfer tubes. - a plurality of outer pipes are disposed, each of the plurality of outer pipes being the outer pipe, - a space is formed between adjacent ones of the plurality of outer pipes, the inner pipe is disposed to be continuous through the plurality of outer pipes, - a plurality of heat-transfer tubes are arrayed in a direction in which the outer pipe extends, and connected to the outer pipe, and - the refrigerant distributor suitable for distributing refrigerant flowing into between the inner pipe and the outer pipe to the plurality of heat-transfer tubes.
Electric hand-held machine tool, in particular cordless screwdriver, having a preferably electric drive, which is accommodated in a housing and drives a drive shaft, having an output drive unit, configured to be in frictional connection to the drive by means of a mechanical shut-off clutch, in order to transmit torque from the drive to an insert tool connected to the output drive unit, wherein the mechanical cut-off clutch comprises a switch ring mounted axially against the force of a return spring and at least one switch element guided on a control curve, wherein the control curve is bounded at one end by a first switch contour, which serves to provide a release torque of the cut-off clutch, when the switch element slides over the first switch contour and thereby generates a sensor signal to disengage the drive, and wherein the control curve is delimited at the other end by a delimiting contour, characterized in that a second switch contour is assigned to the control curve, which serves to provide a pre-switch torque, when the switch element slides over the second switch contour and is thereby configured to generate a pre-switch signal, which precedes the sensor signal in time, wherein the pre-switch torque is smaller than the triggering torque.
A method for wireless communication by a user equipment, UE, comprising: receiving (1405; 1605) a configuration for uplink transmissions, the configuration comprising a resource grant for respective transmission time intervals, TTIs, designated for the uplink transmissions, wherein the configuration comprises a periodicity for the respective TTIs, the respective TTIs being designated for semi-persistent scheduling, SPS, transmissions; identifying (1410; 1610) a first TTI in accordance with the configuration, the first TTI having a first duration; identifying (1415; 1615), within the first TTI, a location of a second TTI in accordance with the configuration, the second TTI having a second duration that is shorter than the first duration; transmitting uplink data during the first TTI or the second TTI based at least in part on the in the received configuration; determining a priority for retransmissions based at least in part on the received configuration, wherein determining the priority comprises determining a highest priority for retransmissions during second TTIs having the second duration; identifying a collision between concurrent uplink transmissions, the concurrent uplink transmissions comprising a retransmission of the uplink data during the second TTI and a second uplink data transmission during a third TTI; and dropping the second uplink data transmission based at least in part on the priority determined for the retransmission. receiving (1405; 1605) a configuration for uplink transmissions, the configuration comprising a resource grant for respective transmission time intervals, TTIs, designated for the uplink transmissions, wherein the configuration comprises a periodicity for the respective TTIs, the respective TTIs being designated for semi-persistent scheduling, SPS, transmissions; identifying (1410; 1610) a first TTI in accordance with the configuration, the first TTI having a first duration; identifying (1415; 1615), within the first TTI, a location of a second TTI in accordance with the configuration, the second TTI having a second duration that is shorter than the first duration; transmitting uplink data during the first TTI or the second TTI based at least in part on the in the received configuration; determining a priority for retransmissions based at least in part on the received configuration, wherein determining the priority comprises determining a highest priority for retransmissions during second TTIs having the second duration; identifying a collision between concurrent uplink transmissions, the concurrent uplink transmissions comprising a retransmission of the uplink data during the second TTI and a second uplink data transmission during a third TTI; and dropping the second uplink data transmission based at least in part on the priority determined for the retransmission.
Heating zone for a domestic appliance for preparing food, having a mounting plate on which a preparation container can be positioned, and a plurality of temperature sensors (7 to 21), which are arranged on the lower side of the mounting plate, wherein at least three temperature sensors ( 7 to 21) are arranged at a varying distance from the centre point of the heating zone and the at least three temperature sensors (7 to 21) are arranged on a straight line (I, II, III) through the centre point, wherein at least three first temperature sensors (7 to 21) are arranged on a first straight line (I, II, III) through the centre point and at least three second temperature sensors (7 to 21) are arranged on a second straight line (I, II, III) through the centre point.
A method of producing steviol glycosides, comprising the step of intracellularly converting rebaudioside A to rebaudioside D, rebaudioside M, or a combination thereof, wherein the step of intracellularly converting rebaudioside A includes subjecting rebaudioside A to a UDP-glucosyl transferase enzyme, the UDP-glucosyl transferase enzyme is intracellularly produced by a host cell, the host cell is capable of rebaudioside A uptake from a culture medium and is capable of expressing genes of enzymes for intracellular conversion of rebaudioside A to rebaudioside D, rebaudioside M, or a combination thereof and wherein the host cell is of a species selected from: Candida utilis, Cyberlindnera jadinii, Kluyveromyces lactis, Kluyveromyces marxianus, Meyerozyma guilliermondii, Pichia guilliermondii, Pichia jadinii, and Zygosaccharomyces rouxii.
A method comprising: detecting for a first arriving path, FAP, and a last arriving path, LAP, in a communication channel; performing (1014, 1018, 1020) correlation on received data for a first hypothesis corresponding to the FAP and LAP being correctly detected; performing (1016, 1018, 1022) correlation on the received data for a second hypothesis corresponding to the FAP and LAP being incorrectly detected; and determining a correct hypothesis among the first and second hypotheses based on correlation results for the first and second hypotheses. detecting for a first arriving path, FAP, and a last arriving path, LAP, in a communication channel; performing (1014, 1018, 1020) correlation on received data for a first hypothesis corresponding to the FAP and LAP being correctly detected; performing (1016, 1018, 1022) correlation on the received data for a second hypothesis corresponding to the FAP and LAP being incorrectly detected; and determining a correct hypothesis among the first and second hypotheses based on correlation results for the first and second hypotheses.
Method for adjusting the clamping force which is exerted by a parking brake, wherein the clamping force is applied partially by an electromotive braking apparatus and partially by a second braking apparatus (6, 7), characterized in that, during a brake application process, the current consumption (i) of the electromotive braking apparatus is regulated at a substantially constant value in an operating phase (phase 4) in which the two braking apparatuses (1; 6, 7) exert force at the same time.
A method for producing a stripping tool, characterised by the steps: a) automated placing of a stripper flat strip in slots which are already present in a stripper plate and wherein the position, type and length of the already present slots into which the stripper flat strips are automatically inserted are detected, localized and transmitted to a control unit by a detection device and/or provided by a CAD program and/or a CAD model for readout by the control unit, b) automated placing of a stripper pin into the stripper plate, wherein the stripper pins are driven directly into the material or a surface of the stripper plate, wherein the position is provided by a CAD program and/or a CAD model for readout by the control unit. a) automated placing of a stripper flat strip in slots which are already present in a stripper plate and wherein the position, type and length of the already present slots into which the stripper flat strips are automatically inserted are detected, localized and transmitted to a control unit by a detection device and/or provided by a CAD program and/or a CAD model for readout by the control unit, b) automated placing of a stripper pin into the stripper plate, wherein the stripper pins are driven directly into the material or a surface of the stripper plate, wherein the position is provided by a CAD program and/or a CAD model for readout by the control unit.
Tail lift for a motor vehicle, comprising a lifting and pivoting mechanism which can be mounted on the motor vehicle by means of connection components, which lifting and pivoting mechanism can be motor driven, in particular hydraulically driven, and has a platform which can be lifted and lowered by the lifting and pivoting mechanism and can be held in a selected situation in all lift positions, it also being possible, when lifted to the level of a cargo space of the motor vehicle, for the platform to be pivoted from a horizontal pivot position to a vertical pivot position in which said platform closes the cargo space of the motor vehicle or is positioned behind a door that closes the cargo space, and vice versa from the vertical pivot position into the horizontal pivot position, or it being possible for the platform to be brought into a stowage position underneath the cargo space of the motor vehicle and, here, mutually pivotable platform regions being pivoted towards one another and folded, and comprising a drive for the lifting and pivoting mechanism, the lifting and lowering and pivoting of the platform or of platform parts being controlled by means of an electrical or electronic control device, a remote control being provided for remotely controlling the control device on the basis of wireless and in particular digitally coded communication, comprising a manual operating device, which can be carried by the operator, and a transmitting/receiving part associated with the control device, the manual operating device and the transmitting/receiving part comprising transmitting/receiving devices (46, 48) which are designed to communicate with one another wirelessly, a device that interacts with the control device being provided for detecting the lift and/or pivot position of the platform, characterized in that the control device is designed to signal the lift and/or pivot position of the platform to the manual operating device by means of communication via the remote control, and in that the lift and/or pivot position of the platform can be displayed visually on and/or acoustically at the manual operating device or can be conveyed by vibration, and in that the manual operating device can be operated again only after receiving the signal regarding the lift and/or pivot position of the platform.
A process for the aromatization of hydrocarbons comprising: contacting a feed containing an alkane of 6 to 12 carbon atoms per molecule with at least one catalyst comprising a non-acidic aluminum-silicon-germanium zeolite, containing aluminium, silicon and germanium in the framework, on which zeolite a noble metal has been deposited and which has been base-exchanged with an alkali metal or alkaline earth metal and, recovering the aromatic product, wherein the zeolite is either a medium pore zeolite with a mean pore size in the range of 5 to 7 angstroms or a large pore zeolite with a mean pore size in the range of 7 to 10 angstroms. contacting a feed containing an alkane of 6 to 12 carbon atoms per molecule with at least one catalyst comprising a non-acidic aluminum-silicon-germanium zeolite, containing aluminium, silicon and germanium in the framework, on which zeolite a noble metal has been deposited and which has been base-exchanged with an alkali metal or alkaline earth metal and, recovering the aromatic product, wherein the zeolite is either a medium pore zeolite with a mean pore size in the range of 5 to 7 angstroms or a large pore zeolite with a mean pore size in the range of 7 to 10 angstroms.
Spring contact pin arrangement with a spring contact pin having a pin housing in which a contact element is mounted so as to be longitudinally displaceable and is force-actuated by a spring device acting contrary to a displacement direction, wherein the contact element is in contact with at least one first interface of the spring contact pin arrangement and protrudes from the pin housing with a contact region for making electrical contact with an electric test item, wherein the spring contact pin arrangement comprises a position sensor, characterised in that the contact element, for transferring its stroke, is in contact with a displaceable sensor element of the position sensor detecting the stroke position of the contact element, wherein the sensor element traverses the same stroke as the contact element.
A minimal invasive medical instrument with a shank which extends in a longitudinal direction, an instrument head which a movable and/or actuatable and is located at a distal end of the shank, a proximal shank section and a distal shank section, wherein the distal shank section can be bent with respect to the proximal shank section about a pivot axis via a joint, at least one fluid channel which leads from the proximal shank section into the distal shank section, wherein the joint comprises a first joint part and a second joint part which is pivotable with respect to the first joint part about the pivot axis, wherein the at least one fluid channel comprises a first channel section in the first joint part, a second channel section in the second joint part and a third channel section which extends annularly about the pivot axis, characterised in that the third channel section comprises an annular wall section which is formed by the first joint part and a second annular wall section which is formed by the second joint part.
A chemical vapor deposition process for depositing a zinc oxide coating on a coated glass substrate comprising the steps of: i) providing a moving glass substrate; ii) depositing a fluorine doped tin oxide coating over the surface of the glass substrate prior to forming the zinc oxide coating; and iii) forming a gaseous mixture comprised of an alkyl zinc compound and an inert gas as a first stream; and iv) in a separate second stream providing a first gaseous inorganic oxygen-containing compound; and v) providing a second gaseous inorganic oxygen-containing compound in the second stream, in a third stream, or in both the second and third streams; and vi) wherein the first and second streams are kept separate prior to mixing the gaseous streams at or near a surface of the moving glass substrate to form a zinc oxide coating thereon; and wherein the zinc oxide is deposited to a thickness of up to 100 nanometers (nm). i) providing a moving glass substrate; ii) depositing a fluorine doped tin oxide coating over the surface of the glass substrate prior to forming the zinc oxide coating; and iii) forming a gaseous mixture comprised of an alkyl zinc compound and an inert gas as a first stream; and iv) in a separate second stream providing a first gaseous inorganic oxygen-containing compound; and v) providing a second gaseous inorganic oxygen-containing compound in the second stream, in a third stream, or in both the second and third streams; and vi) wherein the first and second streams are kept separate prior to mixing the gaseous streams at or near a surface of the moving glass substrate to form a zinc oxide coating thereon; and wherein
A set of autonomous robot cleaning pads (120; 800E; 1000; 1200; 300) of different types, each of the cleaning pads comprising: a pad body having opposite broad surfaces, including a cleaning surface and a mounting surface; a pad type identification feature (1010;1210; 1303) indicative of a type of a cleaning pad; and a mounting plate (802E; 1006; 1206; 1306) secured across the mounting surface (1102; 1302) of the pad body and comprising a cutout (803E, 1012, 1212, 1305) that defines at least in part the pad type identification feature, the mounting plate enabling a pad sensor (624, 724) of a robot, when the cleaning pad is mounted to the robot, to detect the pad type identification feature. a pad body having opposite broad surfaces, including a cleaning surface and a mounting surface; a pad type identification feature (1010;1210; 1303) indicative of a type of a cleaning pad; and a mounting plate (802E; 1006; 1206; 1306) secured across the mounting surface (1102; 1302) of the pad body and comprising a cutout (803E, 1012, 1212, 1305) that defines at least in part the pad type identification feature, the mounting plate enabling a pad sensor (624, 724) of a robot, when the cleaning pad is mounted to the robot, to detect the pad type identification feature.
A silicon-containing polymer, comprising a poly-silane chain or oligo-silane chain in a molecular chain, characterized in that one or more groups represented by a following formula are bound onto a silicon atom in the silicon-containing polymer; wherein the formula is represented by -R 1 -CN • • •, wherein, in the formula, R 1 is an alkylene group having 2 or more and 8 or less carbon atoms, and the poly-silane chain or oligo-silane chain is composed of at least one of units represented by the following formulae to: wherein, in the formulae, R a3 and R a4 each represent a hydrogen atom, a group represented by the formula, an alkyl group, an alkenyl group, a cycloalkyl group, a cycloalkenyl group, an aralkyl group, an alkoxy group, an alkenyloxy group, a cycloalkoxy group, a cycloalkenyloxy group, an aryloxy group, an aralkyloxy group, or a silyl group; R a5 represents a hydrogen atom or an alkyl group; wherein the molecular chain consists of the poly-silane chain or the oligo-silane chain. characterized in that one or more groups represented by a following formula are bound onto a silicon atom in the silicon-containing polymer; wherein the formula is represented by -R 1 -CN • • •, wherein, in the formula, R 1 is an alkylene group having 2 or more and 8 or less carbon atoms, and the poly-silane chain or oligo-silane chain is composed of at least one of units represented by the following formulae to: wherein, in the formulae, R a3 and R a4 each represent a hydrogen atom, a group represented by the formula, an alkyl group, an alkenyl group, a cycloalkyl group, a cycloalkenyl group, an aralkyl group, an alkoxy group, an alkenyloxy group, a cycloalkoxy group, a cycloalkenyloxy group, an aryloxy group, an aralkyloxy group, or a silyl group; R a5 represents a hydrogen atom or an alkyl group;
A tread for a tire, the tread comprising a rubber composition that is based upon a cross-linkable rubber composition, the cross-linkable rubber composition comprising, per 100 parts by weight of rubber (phr): between 50 phr and 90 phr of a first highly unsaturated elastomer being middle chain functionalized with an aminoalkoxysilane group and having a Tg of between -108 °C and -45 °C; between 10 phr and 50 phr of a second highly unsaturated elastomer being end-chain functionalized with a silanol group and having a Tg of between -108 °C and -10 °C; between 50 phr and 150 phr of a silica filler; a plasticizing system comprising between 5 phr and 120 phr of a plasticizing resin having a Tg of at least 25 °C and between 0 phr and 60 phr of a plasticizing liquid; and a curing system. between 50 phr and 90 phr of a first highly unsaturated elastomer being middle chain functionalized with an aminoalkoxysilane group and having a Tg of between -108 °C and -45 °C; between 10 phr and 50 phr of a second highly unsaturated elastomer being end-chain functionalized with a silanol group and having a Tg of between -108 °C and -10 °C; between 50 phr and 150 phr of a silica filler; a plasticizing system comprising between 5 phr and 120 phr of a plasticizing resin having a Tg of at least 25 °C and between 0 phr and 60 phr of a plasticizing liquid; and a curing system.