mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry lifting device for a washing machine, including: a lifting shell , internally provided with a cavity, wherein the laundry lifting device is installed on a drainage outlet of an inner wall of an inner drum ; a centrifugal drainage mechanism , installed in the lifting shell , wherein an initial state of the centrifugal drainage mechanism is a closed state, and the centrifugal drainage mechanism is operated for drainage under a centrifugal force, wherein the centrifugal drainage mechanism includes a centrifugal component and a valve plug component connected with the centrifugal component ; the centrifugal component includes a counterweight part being capable of moving under a centrifugal force, and the movement of the counterweight part drives the valve plug component to operate, characterized in that the laundry lifting device further comprises: a filtration cavity within the cavity of the lifting shell , wherein an opening is arranged in the filtration cavity , such that the drainage water flow can flow into the drainage outlet via the opening and an independently enclosed installation cavity , being separated in the cavity of the lifting shell , and the centrifugal drainage mechanism being installed in the installation cavity . a lifting shell , internally provided with a cavity, wherein the laundry lifting device is installed on a drainage outlet of an inner wall of an inner drum ; a centrifugal drainage mechanism , installed in the lifting shell , wherein an initial state of the centrifugal drainage mechanism is a closed state, and the centrifugal drainage mechanism is operated for drainage under a centrifugal force, wherein the centrifugal drainage mechanism includes a centrifugal component and a valve plug component connected with the centrifugal component ; the centrifugal component includes a counterweight part being capable of moving under a centrifugal force, and the movement of the counterweight part drives the valve plug component to operate, characterized in that the laundry lifting device further comprises: a filtration cavity within the cavity of the lifting shell , wherein an opening is arranged in the filtration cavity , such that the drainage water flow can flow into the drainage outlet via the opening and an independently enclosed installation cavity , being separated in the cavity of the lifting shell , and the centrifugal drainage mechanism being installed in the installation cavity .
A space filling material comprising: reinforcing fibers as an expansion material, the reinforcing fibers forming a plurality of intersections, and, a resin bonding at least one of the intersections; and the space filling material generating an expansion stress upon heating in at least a thickness direction (X) such that the space filling material fills a predetermined space , wherein the resin is a thermoplastic resin having a glass transition temperature of 100°C or higher. reinforcing fibers as an expansion material, the reinforcing fibers forming a plurality of intersections, and, a resin bonding at least one of the intersections; and the space filling material generating an expansion stress upon heating in at least a thickness direction (X) such that the space filling material fills a predetermined space , wherein the resin is a thermoplastic resin having a glass transition temperature of 100°C or higher.
Paper machine suitable for producing a sack-kraft paper web and a low-strength paper web (2.1), comprising a forming section for forming and dewatering the paper web (2, 2.1), a press section and a drying section comprising a pre-dryer section (5.1) and an after-dryer section (5.2) for further dewatering the paper web (2, 2.1), and a reel-up wherein an end-compression unit for compressing the paper web (2, 2.1) is arranged after the pre-dryer section (5.1), wherein a sizing unit is additionally arranged after the pre-dryer section (5.1).
An antibody comprising a modified heavy chain constant region, wherein the modified heavy chain constant region comprises a CH1 domain, a hinge, a CH2 domain, and a CH3 domain in order from N- to C- terminus, wherein: (a) the hinge comprises the amino acid sequence of SEQ ID NO: 21; (b) the CH1 domain comprises the amino acid sequence of SEQ ID NO: 7; (c) the CH2 domain comprises the amino acid sequence of SEQ ID NO: 4 or the amino acid sequence of SEQ ID NO: 24; and (d) the CH3 domain comprises the amino acid sequence of SEQ ID NO: 5 or SEQ ID NO: 5 with the amino acid substitutions E356D and M358L; or wherein the modified heavy chain constant region comprising the CH1 domain, the hinge, the CH2 domain, and the CH3 domain as defined in (a), (b), (c) and (d) lacks the C-terminal GK or K. (a) the hinge comprises the amino acid sequence of SEQ ID NO: 21; (b) the CH1 domain comprises the amino acid sequence of SEQ ID NO: 7; (c) the CH2 domain comprises the amino acid sequence of SEQ ID NO: 4 or the amino acid sequence of SEQ ID NO: 24; and (d) the CH3 domain comprises the amino acid sequence of SEQ ID NO: 5 or SEQ ID NO: 5 with the amino acid substitutions E356D and M358L;
An aqueous inkjet ink set for manufacturing decorative panels comprising: a) a cyan aqueous inkjet ink containing a beta-copper phthalocyanine pigment; b) a red aqueous inkjet ink containing a red pigment R and a polymeric dispersant P; c) a yellow aqueous inkjet ink containing a yellow pigment; and d) a black aqueous inkjet ink containing a carbon black pigment; wherein the red aqueous inkjet ink has a weight ratio R/P of red pigment R to polymeric dispersant P that complies with 1.2 < R/P < 3.0; and wherein the average particle diameter APD of the red pigment R complies with 175 nm < APD < 240 nm, as determined by a dynamic light scattering technique using a laser having an emission wavelength of 633 nm and measured under a scattering angle of 90 degrees; and wherein the red aqueous inkjet ink includes a red pigment selected from the group consisting of C.I. Pigment Red 176, C.I. Pigment Red 188, C.I. Pigment Red 207, C.I. Pigment Red 242, C.I. Pigment Red 254, C.I. Pigment Red 272 and mixed crystals thereof. a) a cyan aqueous inkjet ink containing a beta-copper phthalocyanine pigment; b) a red aqueous inkjet ink containing a red pigment R and a polymeric dispersant P; c) a yellow aqueous inkjet ink containing a yellow pigment; and d) a black aqueous inkjet ink containing a carbon black pigment; wherein the red aqueous inkjet ink has a weight ratio R/P of red pigment R to polymeric dispersant P that complies with 1.2 < R/P < 3.0; and wherein the average particle diameter APD of the red pigment R complies with 175 nm < APD < 240 nm, as determined by a dynamic light scattering technique using a laser having an emission wavelength of 633 nm and measured under a scattering angle of 90 degrees; and wherein the red aqueous inkjet ink includes a red pigment selected from the group consisting of C.I. Pigment Red 176, C.I. Pigment Red 188, C.I. Pigment Red 207, C.I. Pigment Red 242, C.I. Pigment Red 254, C.I. Pigment Red 272 and mixed crystals thereof.
A bore hole sleeve apparatus for a bore hole drill having a tube member including a longitudinal internal passage for receiving a drill string therethrough and an external surface for facing outwardly against a wall of a bore hole, characterised in that : the tube member is adapted to be coupled to a mast of a mobile bore hole drill and to be positioned within the collar region of a bore hole ; and the sleeve apparatus includes an actuator for lifting and lowering the tube member relative to the bore hole for temporary insertion in and support of the collar region of the bore hole. the tube member is adapted to be coupled to a mast of a mobile bore hole drill and to be positioned within the collar region of a bore hole ; and the sleeve apparatus includes an actuator for lifting and lowering the tube member relative to the bore hole for temporary insertion in and support of the collar region of the bore hole.
A releasable coupling device for a slide fastener assembly , the releasable coupling device comprising: a first housing structure comprising a temporary magnet having a spherical shape, the first housing structure including an encircling structure that encircles a portion of the temporary magnet such that a first surface of the temporary magnet is exposed; and a second housing structure comprising a permanent magnet , the second housing structure including a receiving receptacle adapted to receive the first housing structure such that the permanent magnet is in near contact with the first surface of the temporary magnet , characterized in that the first housing structure further comprises a flange extending from the encircling structure , and the second housing structure comprises a notch that is adapted to receive the flange of the first housing structure .
A microelectromechanical system (MEMS) sensor device comprising at least one microelectromechanical system sensor to characterize intracellular dynamics and behavior of a living biological cell so as to quantitatively measure the mechanical stiffness and strength thereof, said microelectromechanical system sensor being responsive to mechanical force changes during said cell's contraction, migration, proliferation and differentiation characterized in that; said microelectromechanical system (MEMS) sensor comprises an interaction platform in the form of a mechano-sensitive platform to have a direct contact with said living biological cell and to measure forces generated by said cell by way of measuring displacements of said interaction platform , said microelectromechanical system (MEMS) sensor comprises strain-sensitive nanoscale elements in the form of electromechanical transducer elements sensing mechanical force applied by said cell in direct contact, said interaction platform is a rectangular planar surface medium, each edge of which is connected with at least two strain-sensitive nanoscale elements in the form of piezoresistive nanowires, said interaction platform is suspended by retaining springs extending between each edge of the interaction platform and a respective anchoring means associated with said edge and, said retaining springs are configured such that their stiffness in the out-of-plane bending direction of said interaction platform is higher than that in in-plane directions whereby the motion of the interaction platform is constrained to in-plane displacements.
A method for synchronising a local clock signal of a network node with a reference clock signal, said network node is comprised within a wireless mesh communications network which includes a plurality of said network nodes interconnected by another plurality of wireless communications links, the method comprising, at said network node: receiving a plurality of clock synchronising signals over respective wireless radio frequency signals at a beamforming steerable antenna of a transceiver having a beamforming steerable antenna for which reception parameters define a reception direction for the antenna , the clock synchronising signals being received on respective incoming beam reception directions; selecting one of the received clock synchronising signals as a reference clock signal by selecting an incoming beam reception direction of the antenna ; producing a reference comparison value by comparing the reference clock signal with a local clock signal of the network node; and adjusting the local clock signal in dependence upon the reference comparison value. receiving a plurality of clock synchronising signals over respective wireless radio frequency signals at a beamforming steerable antenna of a transceiver having a beamforming steerable antenna for which reception parameters define a reception direction for the antenna , the clock synchronising signals being received on respective incoming beam reception directions; selecting one of the received clock synchronising signals as a reference clock signal by selecting an incoming beam reception direction of the antenna ; producing a reference comparison value by comparing the reference clock signal with a local clock signal of the network node; and adjusting the local clock signal in dependence upon the reference comparison value.
A method for controlling the rotational speed of an engine that operates as the power source of a work machine, comprising the steps of: • obtaining a measured value (T i ) representative of the engine load; • obtaining a measured value (n i ) of the engine rotational speed; • deriving a target value (n t ) for the engine speed as a function of the measured engine load value (T i ) or a portion thereof; • if the measured speed (n i ) differs from the target value (nt), changing the engine speed towards the target value, according to an active control characteristic, wherein the active control characteristic is selected from a plurality of active control characteristics, based on the measured engine speed (n i ), characterized in that : the target value (n t ) is derived from a pre-defined control curve ; and the active control characteristic is selected from a plurality of active control characteristics, based on the change detected in the measured engine speed (n i ) as a consequence of a change in the engine load (T i ). • obtaining a measured value (T i ) representative of the engine load; • obtaining a measured value (n i ) of the engine rotational speed; • deriving a target value (n t ) for the engine speed as a function of the measured engine load value (T i ) or a portion thereof; • if the measured speed (n i ) differs from the target value (nt), changing the engine speed towards the target value, according to an active control characteristic, wherein the active control characteristic is selected from a plurality of active control characteristics, based on the measured engine speed (n i ), characterized in that : the target value (n t ) is derived from a pre-defined control curve ; and the active control characteristic is selected from a plurality of active control characteristics, based on the change detected in the measured engine speed (n i ) as a consequence of a change in the engine load (T i ). wherein the active control characteristic is selected from a plurality of active control characteristics, based on the measured engine speed (n i ), characterized in that : the target value (n t ) is derived from a pre-defined control curve ; and the active control characteristic is selected from a plurality of active control characteristics, based on the change detected in the measured engine speed (n i ) as a consequence of a change in the engine load (T i ). the target value (n t ) is derived from a pre-defined control curve ; and the active control characteristic is selected from a plurality of active control characteristics, based on the change detected in the measured engine speed (n i ) as a consequence of a change in the engine load (T i ).
A method of fabricating a magnetoresistive bit from a magnetoresistive stack including at least two magnetic regions , intermediate positioned between two magnetic regions of the at least two magnetic regions, and a multi-layer hard mask region , the method comprising: (a) etching through at least a first layer of the multi-layer hard mask region to create a first set of exposed areas in the form of multiple parallel strips extending in a first direction; (b) after the etching in step (a), etching through at least the first layer of the multi-layer hard mask region to create a second set of exposed areas in the form of multiple parallel strips extending in the first direction, wherein the multiple parallel strips of the first set are spaced apart from the multiple parallel strips of the second set; (c) after the etching in step (b), etching through at least the first layer of the multi-layer hard mask region to create a third set of exposed areas in the form of multiple parallel strips extending in a second direction different from the first direction; (d) after the etching in step (c), etching through at least the first layer of the multi-layer hard mask region to create a fourth set of exposed areas in the form of multiple parallel strips extending in the second direction, wherein the multiple parallel strips of the third set are spaced apart from the multiple parallel strips of the fourth set; and (e) after the etching in step (d), etching through at least a portion of the thickness of the magnetoresistive stack. (a) etching through at least a first layer of the multi-layer hard mask region to create a first set of exposed areas in the form of multiple parallel strips extending in a first direction; (b) after the etching in step (a), etching through at least the first layer of the multi-layer hard mask region to create a second set of exposed areas in the form of multiple parallel strips extending in the first direction, wherein the multiple parallel strips of the first set are spaced apart from the multiple parallel strips of the second set; (c) after the etching in step (b), etching through at least the first layer of the multi-layer hard mask region to create a third set of exposed areas in the form of multiple parallel strips extending in a second direction different from the first direction; (d) after the etching in step (c), etching through at least the first layer of the multi-layer hard mask region to create a fourth set of exposed areas in the form of multiple parallel strips extending in the second direction, wherein the multiple parallel strips of the third set are spaced apart from the multiple parallel strips of the fourth set; and (e) after the etching in step (d), etching through at least a portion of the thickness of the magnetoresistive stack.
An electrocoagulation device configured to treat a process stream, the device comprising: - a cathode (D); - a sacrificial anode (A) consisting of a compacted powder comprising iron and having a porosity between 22 and 51% by volume, wherein said anode (A) is porous and water permeable; - a pressure system, wherein the pressure system is configured for the process stream to flow through said anode, wherein said anode (A) has a first side and an opposite second side , wherein the process stream flows from the first side through said anode (A) to the second side , wherein a pressure of the process stream on the second side is less than the pressure on the first side , such that a pressure differential is at least 6.9 kPa (1 psi), preferably at least 17.9 kPa (2.6 psi). - a cathode (D); - a sacrificial anode (A) consisting of a compacted powder comprising iron and having a porosity between 22 and 51% by volume, wherein said anode (A) is porous and water permeable; - a pressure system, wherein the pressure system is configured for the process stream to flow through said anode,
A wireless communication method, comprising: determining , by a terminal device, an indication format of multiple indicator bits in downlink control information, DCI, for indicating a resource index of a scheduling resource, the indication format being used for defining K bits in the multiple indicator bits, the K bits being used for indicating a channel format that is corresponding to the scheduling resource, wherein K is an integer greater than or equal to 1; determining , by the terminal device, based on the determined indication format, the resource index indicated by the multiple indicator bits from the DCI; and determining , by the terminal device, according to the determined resource index, the scheduling resource for communicating with a network device from at least one available resource; characterized in that the at least one available resource comprise an available resource comprised in a resource set corresponding to format 0 or format 1; wherein the K bits are composed of at least one first bit and at least one second bit; the first bit is used for indicating: an index of the channel format corresponding to the scheduling resource, and the second bit is used for indicating: an index of the scheduling resource in the corresponding resource set corresponding to the channel format. determining , by a terminal device, an indication format of multiple indicator bits in downlink control information, DCI, for indicating a resource index of a scheduling resource, the indication format being used for defining K bits in the multiple indicator bits, the K bits being used for indicating a channel format that is corresponding to the scheduling resource, wherein K is an integer greater than or equal to 1; determining , by the terminal device, based on the determined indication format, the resource index indicated by the multiple indicator bits from the DCI; and determining , by the terminal device, according to the determined resource index, the scheduling resource for communicating with a network device from at least one available resource; characterized in that the at least one available resource comprise an available resource comprised in a resource set corresponding to format 0 or format 1; wherein the K bits are composed of at least one first bit and at least one second bit; the first bit is used for indicating: an index of the channel format corresponding to the scheduling resource, and the second bit is used for indicating: an index of the scheduling resource in the corresponding resource set corresponding to the channel format.
Method for packaging an optical lens having two faces and a peripheral edge , at least one of said faces having a convexity marked by a peak point , said method comprising the following steps, - a step of depositing a rigid material protective strip along the entire length of said edge , the width of the strip extending beyond the peak point of the convex face of the lens and the two ends of the protective strip overlapping, forming an overlap over at least 1 cm, preferably over at least 2 cm, increasing the mechanical strength of said strip , - a step of inserting the lens into an envelope delimited by a wall , - a step of placing said lens in said envelope such that the protective strip serves as a spacer in order to maintain a distance between the wall of the envelope and the convex face of said lens and thus to prevent any contact between said wall and said face , characterized in that the protective strip is at least partially elastic and is tensioned when it is deposited around the peripheral edge of the lens , the two ends of said strip being fixed to one another by any means while the strip is tensioned around the edge of the lens. - a step of depositing a rigid material protective strip along the entire length of said edge , the width of the strip extending beyond the peak point of the convex face of the lens and the two ends of the protective strip overlapping, forming an overlap over at least 1 cm, preferably over at least 2 cm, increasing the mechanical strength of said strip , - a step of inserting the lens into an envelope delimited by a wall , - a step of placing said lens in said envelope such that the protective strip serves as a spacer in order to maintain a distance between the wall of the envelope and the convex face of said lens and thus to prevent any contact between said wall and said face , characterized in that the protective strip is at least partially elastic and is tensioned when it is deposited around the peripheral edge of the lens , the two ends of said strip being fixed to one another by any means while the strip is tensioned around the edge of the lens.