mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: first means for storing a first data value , the first means for storing having a first free layer coupled to a first access transistor and having a first pinned layer coupled to a bit line; and second means for storing a second data value , the second means for storing having a second free layer coupled to the same bit line and having a second pinned layer coupled to a second access transistor , the first means for storing and the second means for storing included in a complementary bit cell ; wherein the first access transistor is coupled to a first source line, SL1, the second access transistor is coupled to a second source line, SL2, and both the first access transistor and the second access transistor are coupled to a single word line, WL. first means for storing a first data value , the first means for storing having a first free layer coupled to a first access transistor and having a first pinned layer coupled to a bit line; and second means for storing a second data value , the second means for storing having a second free layer coupled to the same bit line and having a second pinned layer coupled to a second access transistor , the first means for storing and the second means for storing included in a complementary bit cell ; wherein the first access transistor is coupled to a first source line, SL1, the second access transistor is coupled to a second source line, SL2, and both the first access transistor and the second access transistor are coupled to a single word line, WL.
Heat exchanger of the brazed plate and fin type, comprising: - a plurality of plates arranged in a mutually parallel manner so as to define at least one set of passages for a fluid (F1) intended to exchange heat with at least one other fluid (F2) to flow through, the passages extending in a longitudinal direction (z) and a lateral direction (x) perpendicular to said longitudinal direction (z), - each passage being divided, in the longitudinal direction (z), into at least one distribution zone and one heat-exchange zone , - at least one distribution zone of a passage comprising a distribution element , said distribution element comprising a plurality of dividing walls arranged so as to divide said distribution zone into a plurality of channels for the fluid (F1) to flow through, said channels defining flow paths of different lengths and having variable passage sections for fluid along said flow paths, wherein the dividing walls of the distribution element are secured together via a support , said support being brazed to an adjacent plate . - a plurality of plates arranged in a mutually parallel manner so as to define at least one set of passages for a fluid (F1) intended to exchange heat with at least one other fluid (F2) to flow through, the passages extending in a longitudinal direction (z) and a lateral direction (x) perpendicular to said longitudinal direction (z), - each passage being divided, in the longitudinal direction (z), into at least one distribution zone and one heat-exchange zone , - at least one distribution zone of a passage comprising a distribution element , said distribution element comprising a plurality of dividing walls arranged so as to divide said distribution zone into a plurality of channels for the fluid (F1) to flow through, said channels defining flow paths of different lengths and having variable passage sections for fluid along said flow paths, wherein the dividing walls of the distribution element are secured together via a support , said support being brazed to an adjacent plate .
A printing unit , comprising: a head unit including a thermal head ; and a platen unit combined with the head unit , the platen unit including: a platen roller configured to feed a recording sheet (P) while sandwiching the recording sheet (P) together with the thermal head ; a platen frame configured to support the platen roller in a rotatable manner; a sensor unit including: a sensor configured to detect the recording sheet (P); a connector connected to the sensor ; and a connection portion configured to connect the sensor and the connector to each other; and a sensor holder , which is mounted to the platen frame , and includes: a plurality of connector arrangement portions through which a terminal of the connector is to be exposed; and a plurality of sensor receiving portions in which the sensor unit is to be received. a head unit including a thermal head ; and a platen unit combined with the head unit , the platen unit including: a platen roller configured to feed a recording sheet (P) while sandwiching the recording sheet (P) together with the thermal head ; a platen frame configured to support the platen roller in a rotatable manner; a sensor unit including: a sensor configured to detect the recording sheet (P); a connector connected to the sensor ; and a connection portion configured to connect the sensor and the connector to each other; and a sensor holder , which is mounted to the platen frame , and includes: a plurality of connector arrangement portions through which a terminal of the connector is to be exposed; and a plurality of sensor receiving portions in which the sensor unit is to be received. a platen roller configured to feed a recording sheet (P) while sandwiching the recording sheet (P) together with the thermal head ; a platen frame configured to support the platen roller in a rotatable manner; a sensor unit including: a sensor configured to detect the recording sheet (P); a connector connected to the sensor ; and a connection portion configured to connect the sensor and the connector to each other; and a sensor configured to detect the recording sheet (P); a connector connected to the sensor ; and a connection portion configured to connect the sensor and the connector to each other; and a sensor holder , which is mounted to the platen frame , and includes: a plurality of connector arrangement portions through which a terminal of the connector is to be exposed; and a plurality of sensor receiving portions in which the sensor unit is to be received. a plurality of connector arrangement portions through which a terminal of the connector is to be exposed; and a plurality of sensor receiving portions in which the sensor unit is to be received.
A tire comprising a mark provided on a surface of a sidewall portion so as to be raised from the surface , wherein the mark includes a curved surface portion curved so as to project in a direction substantially perpendicular to the surface , and a flat surface portion provided on at least one side in a tire circumferential direction of the curved surface portion , and a raised height (h) of the flat surface portion from the surface gradually decreases with increasing distance in the tire circumferential direction from the curved surface portion , wherein the flat surface portion includes a first flat surface portion provided on one side in the tire circumferential direction of the curved surface portion , and a second flat surface portion provided on another side in the tire circumferential direction of the curved surface portion , characterized in that a boundary line between the curved surface portion and the first flat surface portion and a boundary line between the curved surface portion and the second flat surface portion each is a curved line curved so as to project on the curved surface portion side when being viewed in a tire axial direction. the mark includes a curved surface portion curved so as to project in a direction substantially perpendicular to the surface , and a flat surface portion provided on at least one side in a tire circumferential direction of the curved surface portion , and a raised height (h) of the flat surface portion from the surface gradually decreases with increasing distance in the tire circumferential direction from the curved surface portion , wherein the flat surface portion includes a first flat surface portion provided on one side in the tire circumferential direction of the curved surface portion , and a second flat surface portion provided on another side in the tire circumferential direction of the curved surface portion , characterized in that a boundary line between the curved surface portion and the first flat surface portion and a boundary line between the curved surface portion and the second flat surface portion each is a curved line curved so as to project on the curved surface portion side when being viewed in a tire axial direction.
A method comprising: generating , by a routing protocol daemon "RPD" operating on a control plane of a network device, a marker timestamp that initiates a consistency check; in response to the marker timestamp, calculating , by each of the RPD, a control plane kernel, and packet forwarding engines of the network device, zonal checksums for a plurality of zones within a routing information base "RIB", a forwarding information base "FIB", and corresponding forwarding tables respectively, wherein each zone comprises one or more routing objects and wherein each zonal checksum is calculated based on checksums for routing objects in the zone having timestamps prior to the marker timestamp; performing , by a collector daemon operating on the control plane of the network device, the consistency check based on comparing the zonal checksums calculated for each zone of the plurality of zones within the RIB, the FIB, and the forwarding tables to determine whether the routing objects in each of the RIB, the FIB, and the forwarding tables are consistent with each other; and when the RIB, the FIB, and the forwarding tables are not consistent with each other, performing an action related to at least one of RIB, the FIB, or the forwarding tables. generating , by a routing protocol daemon "RPD" operating on a control plane of a network device, a marker timestamp that initiates a consistency check; in response to the marker timestamp, calculating , by each of the RPD, a control plane kernel, and packet forwarding engines of the network device, zonal checksums for a plurality of zones within a routing information base "RIB", a forwarding information base "FIB", and corresponding forwarding tables respectively, wherein each zone comprises one or more routing objects and wherein each zonal checksum is calculated based on checksums for routing objects in the zone having timestamps prior to the marker timestamp; performing , by a collector daemon operating on the control plane of the network device, the consistency check based on comparing the zonal checksums calculated for each zone of the plurality of zones within the RIB, the FIB, and the forwarding tables to determine whether the routing objects in each of the RIB, the FIB, and the forwarding tables are consistent with each other; and when the RIB, the FIB, and the forwarding tables are not consistent with each other, performing an action related to at least one of RIB, the FIB, or the forwarding tables.
Spinning machine , in particular a rotor spinning machine or an air jet spinning machine, with a multiple number of work stations arranged side by side between two front-side ends of the spinning machine on at least one longitudinal side of the spinning machine , each of which features a multiple number of work elements for the production and winding of a yarn , whereas the work elements comprise at least one feed device , one spinning chamber , one draw-off device and one winding device , with drives for driving the work elements, and with a suction device for generating negative pressure at the work stations , whereas each work station features an individual drive , in particular an individual electrical drive , for the draw-off device and whereas the suction device includes at least one negative pressure source and at least two negative pressure channels , whereas each of the negative pressure channels extends in the longitudinal direction of the spinning machine only over one part of the work stations , characterized in that the spinning machine features at least two separate negative pressure sources , whereas each of the negative pressure sources is connected to a separate negative pressure channel , that each of the negative pressure sources features a fan and a drive for the fan and that the drives of the negative pressure sources are controllable by a central control device of the spinning machine .
A ventilation device for an interior room, the ventilation device having a ventilator for conveying air, a controlling device for driving the ventilator and an operating device for manual operation of the ventilation device , and a venting opening being formed in a housing wall of a housing of the ventilation device for conveying air by means of the ventilator, the opening being covered by a lid that is spaced apart from it and removably fixed on the housing wall , so that at least an operating panel defined by the operating element on an outer side of the housing wall is hidden from sight when the lid is arranged on the housing wall , characterised in that the operating device has at least one capacitive operating element and the controlling device and the operating device are arranged as a unit at least partially received in a sealing mass on an inner side of the housing wall for contact-less operation of the operating element through the housing wall , wherein the operating element is configured for detecting the presence of the lid on the housing wall and/or for detecting a room air humidity.
An interlayer film for laminated glass, comprising a thermoplastic resin and a copper phthalocyanine compound with a maximum absorption wavelength greater than or equal to 550 nm and less than or equal to 750 nm, wherein the content of the copper phthalocyanine compound is greater than or equal to 0.000014 parts by weight and less than or equal to 0.014 parts by weight relative to 100 parts by weight of the thermoplastic resin, wherein a ratio L's/Ls of the relative scotopic vision luminance L's to the relative photopic vision luminance Ls is greater than or equal to 1.0 at the time of preparing laminated glass with two sheets of clear glass in accordance with JIS R3202 .
Adapter for mounting a capsule-type ultrasonic measurement cell , having a measurement channel equipped with ultrasonic sensors , intended to be mounted on a tank having an inlet pipe and an outlet pipe of aligned type, wherein the rectilinear and aligned inlet pipe and outlet pipe lead directly into the interior of the tank, this additional adapter connecting said inlet pipe to the inlet of said measurement channel and said outlet pipe to the outlet of said measurement channel , and having: a first bent tubular channel intended to be connected to the mouth of one of said pipes and to the inlet of said measurement channel, and a second bent tubular channel intended to be connected to the mouth of the other of said pipes and to the outlet of said measurement channel. a first bent tubular channel intended to be connected to the mouth of one of said pipes and to the inlet of said measurement channel, and a second bent tubular channel intended to be connected to the mouth of the other of said pipes and to the outlet of said measurement channel.
Device for picking up debris from a floor surface , comprising a lifting mechanism and a rotatable brush by means of which the debris can be directed to the lifting mechanism , characterised in that the lifting mechanism comprises two conveyor belts circulating in the same direction which clamp the debris directly between them across a distance and which direct the debris directly or indirectly to a container for the debris.
System comprising a worktop and at least one functional element which is arranged at a lower side of the worktop , wherein the worktop has at the lower side thereof at least one first centering means , wherein the functional element has at least one second centering means and wherein the first centering means and the second centering means are constructed to correspond to each other in such a manner that the functional element is arranged in a defined position with respect to the worktop , characterised in that a bearing element is connected directly or indirectly to the second centering means so that a positioning of the functional element with respect to the worktop is enabled and in that the second centering means and the functional element which is connected thereto can be moved vertically and/or laterally.
Holding and guiding device for joinery comprising an opening leaf articulated about an axis of rotation relative to a fixed frame between an open position and a closed position, the device being characterised in that it comprises two modules , one of which is intended to be fastened to the opening leaf and the other of which is intended to be fastened to an upright of the fixed frame closest to the axis of rotation, one of the modules , called "first module" , includes a rigid tab intended to be inserted into a housing of flared cross section with which the other module called "second module" is provided, the housing being defined between two walls, at least one of which is convex in shape, called "convex wall" , said convex wall extending beyond the housing , the modules being configured to cooperate progressively with each other when the opening leaf is moved towards its closed position until, when said opening leaf occupies its closed position, they reach a position wherein they are interlocked with each other and wherein any movement of said modules relative to each other is limited.
A method for determining a time domain resource, comprising: determining , by a terminal device , a first time slot set in a first period; and selecting , by the terminal device , a part of time slots from the first time slot set based on a first bitmap, wherein the part of time slots form the time domain resource of a resource pool in New Radio Vehicle to Everything, NR V2X, wherein the first time slot set comprises all time slots other than following time slots in the first period: a first type of time slots, configured to send a sidelink synchronizing signal block, S-SSB; a second type of time slots, wherein at least one of N continuous symbols started from a m th symbol in the second type of time slots is not an uplink symbol, m and N being positive integers, m being greater than or equal to 0 but smaller than 13, and m and N being values configured or pre-configured for a current bandwidth part, BWP; and a third type of time slots, the third type of time slots being reserved time slots. determining , by a terminal device , a first time slot set in a first period; and selecting , by the terminal device , a part of time slots from the first time slot set based on a first bitmap, wherein the part of time slots form the time domain resource of a resource pool in New Radio Vehicle to Everything, NR V2X, wherein the first time slot set comprises all time slots other than following time slots in the first period: a first type of time slots, configured to send a sidelink synchronizing signal block, S-SSB; a second type of time slots, wherein at least one of N continuous symbols started from a m th symbol in the second type of time slots is not an uplink symbol, m and N being positive integers, m being greater than or equal to 0 but smaller than 13, and m and N being values configured or pre-configured for a current bandwidth part, BWP; and a third type of time slots, the third type of time slots being reserved time slots. a first type of time slots, configured to send a sidelink synchronizing signal block, S-SSB; a second type of time slots, wherein at least one of N continuous symbols started from a m th symbol in the second type of time slots is not an uplink symbol, m and N being positive integers, m being greater than or equal to 0 but smaller than 13, and m and N being values configured or pre-configured for a current bandwidth part, BWP; and a third type of time slots, the third type of time slots being reserved time slots.
A process for upgrading a Fischer-Tropsch product by contacting a hydrocracking catalyst in a reactor with a Fischer-Tropsch product stream having a feed temperature in the range of from 360°C to 420°C, wherein, before the catalyst is contacted with the Fischer-Tropsch product stream having a feed temperature in the range of from 360°C to 420°C, said process is initiated by; (i) contacting the hydrocracking catalyst with a hydrogen-containing stream having a feed temperature in the range of from 360°C to 420°C; (ii) reducing the feed temperature of the hydrogen-containing stream to a temperature in the range of from 220°C to 280°C; and (iii) contacting the catalyst with a Fischer-Tropsch product stream having a feed temperature in the range of from 220°C to 280°C by co-feeding with the hydrogen-containing stream; (iv) contacting the catalyst with a Fischer-Tropsch product stream having a feed temperature in the range of from 380°C to 400°C by co-feeding with the hydrogen-containing stream and wherein the catalyst is not activated by sulfiding. (i) contacting the hydrocracking catalyst with a hydrogen-containing stream having a feed temperature in the range of from 360°C to 420°C; (ii) reducing the feed temperature of the hydrogen-containing stream to a temperature in the range of from 220°C to 280°C; and (iii) contacting the catalyst with a Fischer-Tropsch product stream having a feed temperature in the range of from 220°C to 280°C by co-feeding with the hydrogen-containing stream; (iv) contacting the catalyst with a Fischer-Tropsch product stream having a feed temperature in the range of from 380°C to 400°C by co-feeding with the hydrogen-containing stream and
A self-propelled forage harvester with an intake device on which a front attachment is disposed, with a chopping device comprising a chopping drum with chopping knives which is driven in rotation and a counter cutter for the comminution of harvested material, as well as a drum floor the distance of which relative to the chopping drum can be varied and which is disposed between the counter cutter and a discharge channel , as well as with a driver assistance system for controlling at least the chopping device , wherein the driver assistance system comprises a memory for the storage of data and a computing device for processing the data stored in the memory , characterized in that the chopping device together with the driver assistance system forms an automated chopping drum unit, in which the computing device is configured to determine anticipatorily, by means of a device for detecting the frontal area, at least one property of a harvested material to be picked up in order to continuously autonomously determine and adapt the distance between the chopping drum and the drum floor as a function of the at least one property of the harvested material, wherein the adaptation of the distance is carried out as a function of at least one operational parameter of the forage harvester , wherein an operational parameter is the type of front attachment , wherein a control device of the forage harvester controls the front attachment so that specific information regarding the type of the respective connected front attachment is available, wherein, depending on the type of front attachment which is present, information regarding the respective front attachment is transmitted to the automated chopping drum unit so that a conclusion regarding the type of harvested material is drawn by the automated chopping drum unit, so that this information is drawn upon in order to set a predeterminable starting distance .