mhurhangee/patent-ind-claim-en huggingface dataset:
A robot configured to grasp and transport items; wherein the robot is configured to assume a use configuration; wherein the robot comprises a frame having a vertical frame projection in the use configuration; and a gripping unit configured to grasp an item, wherein the gripping unit has a vertical gripping unit projection in the use configuration; wherein, in the use configuration, the gripping unit is configured to assume a retracted state and an extended state, wherein the vertical gripping unit projection is greater in the extended state than in the retracted state; wherein, in the use configuration and when the gripping unit is in the retracted configuration, the vertical gripping unit projection comprises a portion not overlapping the vertical frame projection; wherein the gripping unit is configured to assume different vertical positions with respect to the frame in the use configuration; wherein the gripping unit is located at a horizontal offset from the frame ; wherein the gripping unit comprises a gripper configured to grasp an item and wherein the gripper is configured to retract and extend from the remainder of the gripping unit ; wherein the gripping unit further comprises a gripper housing configured to house the gripper , wherein the gripper housing comprises a housing top plate ; and a housing chamber ; wherein the housing top plate is located above the housing chamber in the use configuration; and wherein the robot is a freely moving robot. a frame having a vertical frame projection in the use configuration; and a gripping unit configured to grasp an item, wherein the gripping unit has a vertical gripping unit projection in the use configuration; wherein, in the use configuration, the gripping unit is configured to assume a retracted state and an extended state, wherein the vertical gripping unit projection is greater in the extended state than in the retracted state; wherein, in the use configuration and when the gripping unit is in the retracted configuration, the vertical gripping unit projection comprises a portion not overlapping the vertical frame projection; wherein the gripping unit is configured to assume different vertical positions with respect to the frame in the use configuration; wherein the gripping unit is located at a horizontal offset from the frame ; wherein the gripping unit comprises a gripper configured to grasp an item and wherein the gripper is configured to retract and extend from the remainder of the gripping unit ; a housing top plate ; and a housing chamber ; wherein the housing top plate is located above the housing chamber in the use configuration; and wherein the robot is a freely moving robot.
An active noise reduction (ANR) earphone system comprising: a feedback microphone for detecting noise; feedback circuitry, responsive to the feedback microphone, for applying a digital filter K fb to an output of the feedback microphone to produce an antinoise signal; an electroacoustic driver for transducing the antinoise signal into acoustic energy; a housing supporting the feedback microphone and the driver near the entrance to the ear canal, the housing comprises a rigid nozzle portion; and an ear tip for coupling the housing to the external anatomical structures of a first ear of a user and positioning the housing to provide a consistent acoustic coupling of the feedback microphone and the driver to the ear canal of the first ear, the ear tip comprising a flexible nozzle portion ending in an outlet into the ear canal; wherein the acoustic coupling includes a tube of air defined by the combination of the housing and ear tip, having a length L and effective cross-sectional area A such that the ratio L/A is less than 0.6 mm -1 ; wherein the rigid nozzle portion of the housing and the flexible nozzle portion of the ear tip constitute the tube of air; characterised in that the microphone is located within the rigid nozzle portion of the housing. a feedback microphone for detecting noise; feedback circuitry, responsive to the feedback microphone, for applying a digital filter K fb to an output of the feedback microphone to produce an antinoise signal; an electroacoustic driver for transducing the antinoise signal into acoustic energy; a housing supporting the feedback microphone and the driver near the entrance to the ear canal, the housing comprises a rigid nozzle portion; and an ear tip for coupling the housing to the external anatomical structures of a first ear of a user and positioning the housing to provide a consistent acoustic coupling of the feedback microphone and the driver to the ear canal of the first ear, the ear tip comprising a flexible nozzle portion ending in an outlet into the ear canal; wherein the acoustic coupling includes a tube of air defined by the combination of the housing and ear tip, having a length L and effective cross-sectional area A such that the ratio L/A is less than 0.6 mm -1 ; wherein the rigid nozzle portion of the housing and the flexible nozzle portion of the ear tip constitute the tube of air; characterised in that the microphone is located within the rigid nozzle portion of the housing.
A method of using multivariate optical computing to collect real-time data about a process stream of a target material, said method comprising: (a) installing an optical analysis system (10; 110; 310; 410) proximate a process line, the process line having a transmissive window (13; 113; 313) installed therein and being configured to move the target material past the transmissive window (13; 113; 313) for analysis by the optical analysis system (10; 110; 310; 410); (b) illuminating a portion of the target material in the area of the transmissive window (13; 113; 313) with a modulated light (44; 144; 344) from the optical analysis system (10; 110; 310; 410), said light (44; 144; 344) being in the form of light pulses; (c) capturing said light pulses (46; 146; 346) as said pulses are reflected from the illuminated portion of the target material, said pulses (46; 146; 346) carrying information about a property of the illuminated portion of the target material; (d) directing a portion of said information-carrying pulses (46; 146; 346) through at least one multivariate optical element (48; 148; 348) in the optical analysis system (10; 110; 310; 410) to produce a stream of instantaneous measurement results; and (e) continuously averaging the stream of instantaneous measurement results over a period of time to determine an overall measurement of said property of the target. (a) installing an optical analysis system (10; 110; 310; 410) proximate a process line, the process line having a transmissive window (13; 113; 313) installed therein and being configured to move the target material past the transmissive window (13; 113; 313) for analysis by the optical analysis system (10; 110; 310; 410); (b) illuminating a portion of the target material in the area of the transmissive window (13; 113; 313) with a modulated light (44; 144; 344) from the optical analysis system (10; 110; 310; 410), said light (44; 144; 344) being in the form of light pulses; (c) capturing said light pulses (46; 146; 346) as said pulses are reflected from the illuminated portion of the target material, said pulses (46; 146; 346) carrying information about a property of the illuminated portion of the target material; (d) directing a portion of said information-carrying pulses (46; 146; 346) through at least one multivariate optical element (48; 148; 348) in the optical analysis system (10; 110; 310; 410) to produce a stream of instantaneous measurement results; and (e) continuously averaging the stream of instantaneous measurement results over a period of time to determine an overall measurement of said property of the target.
Device for producing at least one container product from plastics material, which is moulded by means of a moulding device , furnished with a pre-definable container content by means of a filling device, and closed by means of a closing device, wherein the moulding device comprises individual mould sections , which are moved in pairs on top of one another, to and away from each other to close and/or open a production mould, in which the respective container product is moulded, furnished with the container content and closed, characterised in that the respective finished container product is transported to a post-treatment zone in which a temperature-influencing action is applied to the respective container product and/or the respective container content.
A delivery method comprising: a) receiving an order for a plurality of SKUs; b) generating a pick sheet based upon the order for the plurality of SKUs; c) assembling a plurality of items on a platform based upon the pick sheet ; d) imaging the plurality of items assembled on the platform to generate at least one image ; e) analyzing the at least one image to identify the SKUs of the assembled plurality of items , f) comparing the SKUs identified in step e) to the SKUs on the pick sheet ; and g) indicating whether the SKUs identified in step e) match the SKUs on the pick sheet based upon the comparison in step f), h) based on an indication from step g) that the SKUs identified in step e) do not match the SKUs on the pick sheet , correcting the items on the platform , and in that step e) includes: i) analyzing the at least one image to identify a package type of one of the plurality of items ; characterized in that the method further comprises the steps of j) based upon the identified package type from step i) narrowing the list of possible branding options to be identified; and k) after step j), determining a brand of the one of the plurality of items based upon the narrowed list of possible branding options. a) receiving an order for a plurality of SKUs; b) generating a pick sheet based upon the order for the plurality of SKUs; c) assembling a plurality of items on a platform based upon the pick sheet ; d) imaging the plurality of items assembled on the platform to generate at least one image ; e) analyzing the at least one image to identify the SKUs of the assembled plurality of items , f) comparing the SKUs identified in step e) to the SKUs on the pick sheet ; and g) indicating whether the SKUs identified in step e) match the SKUs on the pick sheet based upon the comparison in step f), h) based on an indication from step g) that the SKUs identified in step e) do not match the SKUs on the pick sheet , correcting the items on the platform , and in that step e) includes: i) analyzing the at least one image to identify a package type of one of the plurality of items ; characterized in that the method further comprises the steps of j) based upon the identified package type from step i) narrowing the list of possible branding options to be identified; and k) after step j), determining a brand of the one of the plurality of items based upon the narrowed list of possible branding options.
A modified Von Willebrand Factor (VWF) which binds Factor VIII wherein the modified VWF comprises a sequence as shown in SEQ ID NO:3 or a fragment thereof; wherein the modified VWF binds to Factor VIII with an off rate lower than a reference VWF comprising an unmodified SEQ ID NO:3 in which the modified VWF comprises a sequence selected from the group consisting of SEQ ID NO:5 (S764P/S766W/V1083A), SEQ ID NO:6 (S764G/S766Y/V1083A), SEQ ID NO:7 (S764E/S766Y/V1083A), SEQ ID NO:8 (N1011S/V1083A/K1181E), SEQ ID NO:17 (S766Y/V1083A), SEQ ID NO:11 (V805A/Q1158L), SEQ ID NO:12 (K912E/T1088S), SEQ ID NO:9 (V1083A), SEQ ID NO:10 (S1042T), and SEQ ID NO:13 (L781P).
A communication method for handover, comprising: sending, by a source access-network network element, a handover request message to a target access-network network element, wherein the handover request message comprises an identifier, ID, of a data radio bearer, DRB, and information indicating whether to configure a Service Data Adaptation Protocol, SDAP, header for the DRB; and receiving, by the source access-network network element, a handover request acknowledgement message sent by the target access-network network element. sending, by a source access-network network element, a handover request message to a target access-network network element, wherein the handover request message comprises an identifier, ID, of a data radio bearer, DRB, and information indicating whether to configure a Service Data Adaptation Protocol, SDAP, header for the DRB; and receiving, by the source access-network network element, a handover request acknowledgement message sent by the target access-network network element.
An adhesive sign comprising: a transparent substrate layer having opposed first and second surfaces; an adhesive layer having an inner surface and an outer surface, the inner surface being disposed on the second surface of the substrate layer, the adhesive layer defining an exposed region on the outer surface for attachment to an associated structure, the adhesive layer being derived from a photo-curable adhesive composition suitable for inkjet printing, wherein the viscosity of the uncured photo-curable adhesive composition is from 2 to 3000 mPa·s at 25 °C, as determined with a Brookfield Dial Reading Viscometer with an RV/HA-3 spindle setting; and an ink layer disposed on the second surface of the substrate layer, the ink layer including an image, the ink layer being derived from a photo-curable ink composition suitable for inkjet printing, the image being visible through the transparent substrate, wherein the viscosity of the uncured photo-curable ink composition is from 2 to 50 mPa·s at 25 °C, as determined with a Brookfield Dial Reading Viscometer with an RV/HA-3 spindle setting. a transparent substrate layer having opposed first and second surfaces; an adhesive layer having an inner surface and an outer surface, the inner surface being disposed on the second surface of the substrate layer, the adhesive layer defining an exposed region on the outer surface for attachment to an associated structure, the adhesive layer being derived from a photo-curable adhesive composition suitable for inkjet printing, wherein the viscosity of the uncured photo-curable adhesive composition is from 2 to 3000 mPa·s at 25 °C, as determined with a Brookfield Dial Reading Viscometer with an RV/HA-3 spindle setting; and an ink layer disposed on the second surface of the substrate layer, the ink layer including an image, the ink layer being derived from a photo-curable ink composition suitable for inkjet printing, the image being visible through the transparent substrate, wherein the viscosity of the uncured photo-curable ink composition is from 2 to 50 mPa·s at 25 °C, as determined with a Brookfield Dial Reading Viscometer with an RV/HA-3 spindle setting.
A method for controlling an agricultural implement in a transport position during transport, the agricultural implement comprising a plurality of implement tools and at least one actuator for moving one or more of the plurality of implement tools, wherein the method comprises: determining a present or future change in the agricultural implement's speed and/or direction of motion; determining an actuator-control-signal based on the determination of a present or future change; automatically activating an operation of the at least one actuator for moving the one or more of the plurality of implement tools, if a present or future change in the agricultural implement's speed and/or direction is determined. determining a present or future change in the agricultural implement's speed and/or direction of motion; determining an actuator-control-signal based on the determination of a present or future change; automatically activating an operation of the at least one actuator for moving the one or more of the plurality of implement tools, if a present or future change in the agricultural implement's speed and/or direction is determined.
A prosthetic heart valve, comprising: a stent having a collapsed condition and an expanded condition, the stent having a proximal end, a distal end and a plurality of commissure features , wherein the prosthetic heart valve further includes; a valve assembly secured to the stent, the valve assembly including a cuff and a plurality of leaflets , each of the leaflets having a proximal end , a distal end , a belly having a free edge and a second edge opposite the free edge, and a belly contour that is substantially parabolic, the free edge stretching between first and second attachment regions , the first attachment region attached to one of the plurality of commissure features and the second attachment region attached to another of the plurality of commissure features, the second edge secured to the cuff, the second edge having a first end, a second end, folded portions adjacent the first end and the second end, and an unfolded portion between the folded portions, the folded portions coupling the leaflet to ones of the commissure features, the belly contour formed between the first and second attachment regions on the second edge; and a reinforcement consisting solely of a reverse-running stitch disposed along the unfolded portion and spaced a distance (f2) from the second edge of each of the plurality of leaflets. a stent having a collapsed condition and an expanded condition, the stent having a proximal end, a distal end and a plurality of commissure features , wherein the prosthetic heart valve further includes; a valve assembly secured to the stent, the valve assembly including a cuff and a plurality of leaflets , each of the leaflets having a proximal end , a distal end , a belly having a free edge and a second edge opposite the free edge, and a belly contour that is substantially parabolic, the free edge stretching between first and second attachment regions , the first attachment region attached to one of the plurality of commissure features and the second attachment region attached to another of the plurality of commissure features, the second edge secured to the cuff, the second edge having a first end, a second end, folded portions adjacent the first end and the second end, and an unfolded portion between the folded portions, the folded portions coupling the leaflet to ones of the commissure features, the belly contour formed between the first and second attachment regions on the second edge; and a reinforcement consisting solely of a reverse-running stitch disposed along the unfolded portion and spaced a distance (f2) from the second edge of each of the plurality of leaflets.
A control plate assembly for a flushing tank, comprising a mounting counterplate , provided with at least one actuating member for cooperating, in use, with a flush valve of the flushing tank and supported by the counterplate by means of at least one corresponding support formed on the counterplate ; a cover plate having at least one window formed through the cover plate and inside which at least one control button , cooperating with the actuating member , is housed; a base plate fixable to the cover plate by means of a coupling system and to the counterplate by means of a releasable fastening device and provided with an auxiliary window formed through opposite faces of the base plate and facing towards and aligned with the window of the cover plate to house the button ; wherein the base plate is provided with rotation supports configured for supporting in a rotary manner said at least one button and the button is hinged to the base plate by means of said supports ; and wherein the button has a base body extending between a root end , hinged to a pair of supports , and a free end , opposite to the root end and provided with a driving portion , inserted in the window and in the auxiliary window so as to be operated by a user; characterised in that the button is provided with a cover element covering the driving portion and fixed thereto in a releasable manner; the cover element being housed in the window and in the auxiliary window and defining a visible part of the button .
A synthetic leather comprising: a base fabric (i); an intermediate layer (ii); and a skin layer (iii), wherein the intermediate layer (ii) is formed of an aqueous urethane resin composition (C) containing a urethane resin (A) and an aqueous medium (B), and the urethane resin (A) is a reaction product of a polyol (a1) containing a polyol (a1-1) having an anionic group, an aromatic polyisocyanate (a2) and a chain extender (a3), and has an anionic group in a concentration of 0.35 mmol/g or less and the skin layer (iii) is formed of an aqueous urethane resin composition (Z) containing a urethane resin (X) and an aqueous medium (Y), and the urethane resin (X) is a reaction product obtained by using a polyol (b1), a reactive silicone (b2) having a functional group which reacts with an isocyanate group, and a polyisocyanate (b3) as essential raw materials, wherein the aromatic polyisocyanate (a2) is toluene diisocyanate, and wherein the chain extender (a3) is an aliphatic polyol compound, and wherein an amount of the reactive silicone (b2) used is 1% to 25% by mass in the total mass of the raw materials constituting the urethane resin (X), and wherein the reactive silicone (b2) has a number average molecular weight of 4,000 or more. a base fabric (i); an intermediate layer (ii); and a skin layer (iii), wherein the intermediate layer (ii) is formed of an aqueous urethane resin composition (C) containing a urethane resin (A) and an aqueous medium (B), and the urethane resin (A) is a reaction product of a polyol (a1) containing a polyol (a1-1) having an anionic group, an aromatic polyisocyanate (a2) and a chain extender (a3), and has an anionic group in a concentration of 0.35 mmol/g or less and the skin layer (iii) is formed of an aqueous urethane resin composition (Z) containing a urethane resin (X) and an aqueous medium (Y), and the urethane resin (X) is a reaction product obtained by using a polyol (b1), a reactive silicone (b2) having a functional group which reacts with an isocyanate group, and a polyisocyanate (b3) as essential raw materials, wherein the aromatic polyisocyanate (a2) is toluene diisocyanate, and wherein the chain extender (a3) is an aliphatic polyol compound, and wherein an amount of the reactive silicone (b2) used is 1% to 25% by mass in the total mass of the raw materials constituting the urethane resin (X), and wherein the reactive silicone (b2) has a number average molecular weight of 4,000 or more.