mhurhangee/patent-ind-claim-en huggingface dataset:
A loader boom arm assembly for a loader work vehicle, the loader boom arm comprising: an arm assembly including: a first hollow beam formed from a material having a weight lighter than steel; a second hollow beam formed from the material; and a connection assembly having a first angled intermediate plate and a pair of knee plates formed from the material, with a portion of the first angled intermediate plate received within the first hollow beam at a first end and a second portion of the first angled intermediate plate received within the second hollow beam at a second end, the pair of knee plates cooperating to define a first channel that receives the end of the first hollow beam and a second channel that receives the second end of the second hollow beam such that the first end of the first hollow beam and the second end of the second hollow beam are between the pair of knee plates , wherein the first angled intermediate plate and the pair of knee plates are configured for interconnecting the first hollow beam with the second hollow beam at the first and second ends. a first hollow beam formed from a material having a weight lighter than steel; a second hollow beam formed from the material; and a connection assembly having a first angled intermediate plate and a pair of knee plates formed from the material, with a portion of the first angled intermediate plate received within the first hollow beam at a first end and a second portion of the first angled intermediate plate received within the second hollow beam at a second end, the pair of knee plates cooperating to define a first channel that receives the end of the first hollow beam and a second channel that receives the second end of the second hollow beam such that the first end of the first hollow beam and the second end of the second hollow beam are between the pair of knee plates , wherein the first angled intermediate plate and the pair of knee plates are configured for interconnecting the first hollow beam with the second hollow beam at the first and second ends.
A formulation for substantially stable storage of one or more nucleic acid molecule in a native, non-denatured state in a blood sample at ambient temperatures, wherein the one or more nucleic acid molecule is stabilized in a native, non-denatured state substantially free of contaminating intracellular nucleic acids after storage at room temperature for a period of at least four days, wherein the formulation comprises: (i) a pH buffer; (ii) a phosphatase inhibitor; (iii) a purine; (iv) a zwitterionic compound, a cationic compound, or a combination thereof; and (v) a compound selected from: (v.a) an apoptosis inhibitor or a caspase inhibitor; and/or (v.b) a nuclease inhibitor; and wherein said formulation does not comprise a chelating agent, such as EDTA. (i) a pH buffer; (ii) a phosphatase inhibitor; (iii) a purine; (iv) a zwitterionic compound, a cationic compound, or a combination thereof; and (v) a compound selected from: (v.a) an apoptosis inhibitor or a caspase inhibitor; and/or (v.b) a nuclease inhibitor; (v.a) an apoptosis inhibitor or a caspase inhibitor; and/or (v.b) a nuclease inhibitor;
A method of wireless communication performed by a base station, BS (no), comprising: determining multiple total downlink assignment indexes, DAIs, corresponding to multiple DAI groups associated with a user equipment, UE , wherein each of the multiple DAI groups is associated with a different set of component carriers, CCs, used by the UE for carrier aggregation; wherein the multiple total DAIs include a first total DAI for a first set of component carriers used by the UE and a second total DAI for a second set of component carriers used by the UE , and wherein a different number of code block groups, CBGs, per transport block, TB, are used for the first set of component carriers and the second set of component carriers; and transmitting the multiple total DAIs to the UE in an uplink grant, wherein the multiple total DAIs are indicated in different fields of the uplink grant. determining multiple total downlink assignment indexes, DAIs, corresponding to multiple DAI groups associated with a user equipment, UE , wherein each of the multiple DAI groups is associated with a different set of component carriers, CCs, used by the UE for carrier aggregation; wherein the multiple total DAIs include a first total DAI for a first set of component carriers used by the UE and a second total DAI for a second set of component carriers used by the UE , and wherein a different number of code block groups, CBGs, per transport block, TB, are used for the first set of component carriers and the second set of component carriers; and transmitting the multiple total DAIs to the UE in an uplink grant, wherein the multiple total DAIs are indicated in different fields of the uplink grant.
A tank for storing condensates at high temperatures, the tank including at least: - an inlet - outlet assembly for connection to a heat exchanger, the outlet enabling a transfer of the condensates contained in the tank to the inlet of said heat exchanger and the inlet enabling a return of the condensates in said tank , - a discharge allowing the discharge of at least part of the condensates contained in said tank , - tappings for placing at least one temperature probe and a level probe allowing measuring respectively the temperature T and the level N of the condensates contained in said tank , - an intake of high-temperature condensates in the tank , and - a control unit configured to manage said temperature T, characterized in that the control unit is configured to manage said temperature T thanks to the dynamic management of the level N by controlling the discharge of the condensates according to: - the caloric inputs of the condensates at high-temperature entering through the intake , and - heat losses due to the return in said tank through the inlet of the condensates coming from the heat exchanger. - an inlet - outlet assembly for connection to a heat exchanger, the outlet enabling a transfer of the condensates contained in the tank to the inlet of said heat exchanger and the inlet enabling a return of the condensates in said tank , - a discharge allowing the discharge of at least part of the condensates contained in said tank , - tappings for placing at least one temperature probe and a level probe allowing measuring respectively the temperature T and the level N of the condensates contained in said tank , - an intake of high-temperature condensates in the tank , and - a control unit configured to manage said temperature T, characterized in that the control unit is configured to manage said temperature T thanks to the dynamic management of the level N by controlling the discharge of the condensates according to: - the caloric inputs of the condensates at high-temperature entering through the intake , and - heat losses due to the return in said tank through the inlet of the condensates coming from the heat exchanger. - the caloric inputs of the condensates at high-temperature entering through the intake , and - heat losses due to the return in said tank through the inlet of the condensates coming from the heat exchanger.
Method for producing steam generator tubes, wherein an insert is fixed in grooves of a former shaft , the former shaft is introduced with the insert into a steam generator tube, the fixing of the insert to the former shaft is released, and the former shaft is removed again from the steam generator tube, characterised in that the insert is fixed to the former shaft with a pretension and that after release of the fixing to the former shaft the insert lifts out of the grooves of the former shaft and thus is fixed independently in the steam generator tube, without any further manual fixing being necessary.
A process for manufacturing a combined microelectromechanical device , comprising: forming in a die of semiconductor material at least a first and a second microelectromechanical structures; bonding a cap to the die by means of a bonding region , so as to define at least a first and a second cavity, at said first and, respectively, second microelectromechanical structures; forming an access channel through said cap in fluidic communication with the first cavity so as to control the pressure value inside said first cavity in a distinct manner with respect to a respective pressure value inside said second cavity ; hermetically closing said first cavity with respect to said access channel , characterized in that bonding comprises: implementing, prior to forming said access channel , a first bonding phase, at a controlled pressure having a first value (P 1 ), being a function of the pressure value inside said second cavity , implementing, after forming said access channel , a second bonding phase, at a respective controlled pressure having a second value (P 2 ), being a function of the pressure value inside said first cavity , wherein, due to said second bonding phase, the bonding region deforms to hermetically close said first cavity with respect to said access channel . forming in a die of semiconductor material at least a first and a second microelectromechanical structures; bonding a cap to the die by means of a bonding region , so as to define at least a first and a second cavity, at said first and, respectively, second microelectromechanical structures; forming an access channel through said cap in fluidic communication with the first cavity so as to control the pressure value inside said first cavity in a distinct manner with respect to a respective pressure value inside said second cavity ; hermetically closing said first cavity with respect to said access channel , characterized in that bonding comprises: implementing, prior to forming said access channel , a first bonding phase, at a controlled pressure having a first value (P 1 ), being a function of the pressure value inside said second cavity , implementing, after forming said access channel , a second bonding phase, at a respective controlled pressure having a second value (P 2 ), being a function of the pressure value inside said first cavity , wherein, due to said second bonding phase, the bonding region deforms to hermetically close said first cavity with respect to said access channel . implementing, prior to forming said access channel , a first bonding phase, at a controlled pressure having a first value (P 1 ), being a function of the pressure value inside said second cavity , implementing, after forming said access channel , a second bonding phase, at a respective controlled pressure having a second value (P 2 ), being a function of the pressure value inside said first cavity , wherein, due to said second bonding phase, the bonding region deforms to hermetically close said first cavity with respect to said access channel .
A portable stage system comprising: a deck having a through hole extending vertically through the deck ; a frame below the deck , the frame having a vertical column ; a pin removably extending into the through hole and having a top engagement portion configured to be engaged from above at an upper surface of the pin through the through-hole; and a height adjustment assembly mounted on the frame and attached to the pin , the deck being removably supported on the height adjustment assembly , the height adjustment assembly raising the deck upon rotation of the pin in a first direction; characterized in that the height adjustment assembly comprises a rod portion threadably mounted into a bushing , and in that the pin and the rod portion are connected so that the rotation of the pin also rotates the rod portion , and in that a socket mounts to the rod portion and supports the pin , wherein rotation of the pin provides axial movement of the socket and the pin relative to the bushing and the vertical column . a deck having a through hole extending vertically through the deck ; a frame below the deck , the frame having a vertical column ; a pin removably extending into the through hole and having a top engagement portion configured to be engaged from above at an upper surface of the pin through the through-hole; and a height adjustment assembly mounted on the frame and attached to the pin , the deck being removably supported on the height adjustment assembly , the height adjustment assembly raising the deck upon rotation of the pin in a first direction; characterized in that the height adjustment assembly comprises a rod portion threadably mounted into a bushing , and in that the pin and the rod portion are connected so that the rotation of the pin also rotates the rod portion , and in that a socket mounts to the rod portion and supports the pin , wherein rotation of the pin provides axial movement of the socket and the pin relative to the bushing and the vertical column .
A glass separator tube for the preparation of a platelet concentrate composition, wherein the contents of the tube consist of a polyester-based thixotropic gel and a buffered sodium citrate solution at 0.10 M.
Method for producing a polymer membrane for the potentiometric detection of an analyte, the method comprising the following successive steps: - providing a formulation comprising a dissolved polymer, an ion exchanger, an ionophore, optionally a plasticiser, and a solvent selected from alkylene glycol diacetates, glycol ethers and acetates thereof, - depositing the formulation on a support, for example a transducer , - evaporating the solvent, so as to form a polymer membrane . - providing a formulation comprising a dissolved polymer, an ion exchanger, an ionophore, optionally a plasticiser, and a solvent selected from alkylene glycol diacetates, glycol ethers and acetates thereof, - depositing the formulation on a support, for example a transducer , - evaporating the solvent, so as to form a polymer membrane .
Bag having a bag wall made of a flexible laminate which has an insulating layer-forming component (7.1), and having a closure which can close a bag opening (1.5) of the bag , characterized in that the laminate has as carrier a flexible fabric (7.2), more particularly glass fiber fabric, which is coated with the insulating layer-forming component (7.1), and wherein the insulating layer-forming component (7.1) is intumescent and based on expandable graphite.
A solid-phase support material suitable for supporting a metallocene catalytic compound, the solid-phase support material comprising a solid polymethylaluminoxane modified by reaction with a compound of formula (I) or (II) shown below: wherein X is hydroxyl or a group B(Y) 2 or a group Al(Y) 2 , wherein each Y is independently selected from hydroxyl, phenyl and naphthalenyl, any of which may be optionally substituted with one or more groups selected from halo, hydroxyl, (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl and trihaloalkyl; R a and R b are independently hydrogen, hydroxyl, (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl, halo or trihaloalkyl, or R a and R b are linked, such that, when taken with the atoms to which they are attached, they form a 6-membered aromatic ring that is optionally substituted by one or more groups selected from halo, 1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl and trihaloalkyl; R c -R e are independently hydrogen, hydroxyl, (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl, halo or trihaloalkyl; Z is hydroxyl or a group -NR x R y , wherein R x and R y are independently selected from hydrogen and (1-4C)alkyl; R f is (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl, trihaloalkyl or a phenyl group that is optionally substituted with one or more groups selected from hydroxyl, (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl, halo and trihaloalkyl; wherein the mole ratio of the compound of formula (I) or (II) to the solid polymethylaluminoxane within the solid-phase support material ranges from 0.0001:1 to 0.3:1. X is hydroxyl or a group B(Y) 2 or a group Al(Y) 2 , wherein each Y is independently selected from hydroxyl, phenyl and naphthalenyl, any of which may be optionally substituted with one or more groups selected from halo, hydroxyl, (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl and trihaloalkyl; R a and R b are independently hydrogen, hydroxyl, (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl, halo or trihaloalkyl, or R a and R b are linked, such that, when taken with the atoms to which they are attached, they form a 6-membered aromatic ring that is optionally substituted by one or more groups selected from halo, 1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl and trihaloalkyl; R c -R e are independently hydrogen, hydroxyl, (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl, halo or trihaloalkyl; Z is hydroxyl or a group -NR x R y , wherein R x and R y are independently selected from hydrogen and (1-4C)alkyl; R f is (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl, trihaloalkyl or a phenyl group that is optionally substituted with one or more groups selected from hydroxyl, (1-4C)alkyl, (2-4C)alkenyl, (2-4C)alkynyl, halo and trihaloalkyl; wherein the mole ratio of the compound of formula (I) or (II) to the solid polymethylaluminoxane within the solid-phase support material ranges from 0.0001:1 to 0.3:1.
A method of bonding first and second glass panels to one another, so as to hermetically seal and isolate a cavity defined therebetween, the method comprising, a. providing a first homogeneous powder glass sealing composition comprising: i. 25-65 mol% Bi 2 O 3 , ii. 3-60 mol% ZnO, iii. 4-65 mol% B 2 O 3 , iv. no intentionally added oxides of silicon, and v. no intentionally added oxides of aluminum vi. 0.1-25 mol% of at least one selected from the group consisting of CuO, Fe 2 O 3 , Co 2 O 3 , MnO, NiO, Cr 2 O 3 ; b. providing a second homogeneous powder glass sealing composition comprising: i. 25-65 mol% Bi 2 O 3 , ii. 3-60 mol% ZnO, iii. 4-65 mol% B 2 O 3 , iv. no intentionally added oxides of silicon, and v. no intentionally added oxides of aluminum vi. 0.1-25 mol% of at least one colorant selected from the group consisting of CuO, Fe 2 O 3 , Co 2 O 3 , MnO, NiO, Cr 2 O 3 , c. mixing the first and second powders to form a mixture, d. applying the mixture to at least one of the first and second glass panels, e. positioning the first and second glass panels such that the first and second powders come into contact with both glass panels, f. firing at a temperature of 350-550 °C to sinter and flow the first and second powders, and wherein the second homogeneous glass powder is different from the first homogeneous glass powder. a. providing a first homogeneous powder glass sealing composition comprising: i. 25-65 mol% Bi 2 O 3 , ii. 3-60 mol% ZnO, iii. 4-65 mol% B 2 O 3 , iv. no intentionally added oxides of silicon, and v. no intentionally added oxides of aluminum vi. 0.1-25 mol% of at least one selected from the group consisting of CuO, Fe 2 O 3 , Co 2 O 3 , MnO, NiO, Cr 2 O 3 ; i. 25-65 mol% Bi 2 O 3 , ii. 3-60 mol% ZnO, iii. 4-65 mol% B 2 O 3 , iv. no intentionally added oxides of silicon, and v. no intentionally added oxides of aluminum vi. 0.1-25 mol% of at least one selected from the group consisting of CuO, Fe 2 O 3 , Co 2 O 3 , MnO, NiO, Cr 2 O 3 ; b. providing a second homogeneous powder glass sealing composition comprising: i. 25-65 mol% Bi 2 O 3 , ii. 3-60 mol% ZnO, iii. 4-65 mol% B 2 O 3 , iv. no intentionally added oxides of silicon, and v. no intentionally added oxides of aluminum vi. 0.1-25 mol% of at least one colorant selected from the group consisting of CuO, Fe 2 O 3 , Co 2 O 3 , MnO, NiO, Cr 2 O 3 , i. 25-65 mol% Bi 2 O 3 , ii. 3-60 mol% ZnO, iii. 4-65 mol% B 2 O 3 , iv. no intentionally added oxides of silicon, and v. no intentionally added oxides of aluminum vi. 0.1-25 mol% of at least one colorant selected from the group consisting of CuO, Fe 2 O 3 , Co 2 O 3 , MnO, NiO, Cr 2 O 3 , c. mixing the first and second powders to form a mixture, d. applying the mixture to at least one of the first and second glass panels, e. positioning the first and second glass panels such that the first and second powders come into contact with both glass panels, f. firing at a temperature of 350-550 °C to sinter and flow the first and second powders, and
A transport container , in particular bottle crate for receiving beverage bottles or bottle packs, comprising a container base body with a base and four side walls , wherein at least one of the side walls has a base surface and at least one relief element formed in a raised manner relative to the base surface or at least one inverted relief element formed in a recessed manner relative to the base surface , wherein the side wall comprises at least one inmould foil covering at least partially the base surface and the relief element or the inverted relief element , respectively, and wherein the inmould foil comprises a first region associated with the base surface , and a second region associated with the relief element or inverted relief element , characterised in that the inmould foil comprises at least one compensating recess in a transition region from the first region to the second region , which compensating recess is well-defined by a preconditioning of the inmould foil .
A computer-implemented method for locating a center of rotation (Pc') of an articulated joint connecting two bones or sets of bones of an upper or lower limb of a user (USR), said method comprising the steps of: a) performing, by the user (USR), a series of repetitive movements of sweeping one of the bones or sets of bones around the joint, and simultaneously acquiring 3D positions of the bone or set of bones during said series, thereby obtaining a 3D cloud of points (P); b) computing, in a 3D searching space comprising a 3D position of a termination of the other bone or set of bones, a point referred to as center point (Pc), said center point being a searching point of the 3D searching space for which the standard deviation is the lowest considering a set of distances between the searching point and each point of the 3D cloud of points (P); c) transforming the 3D cloud of points (P) into a plane by applying a principal component analysis on said 3D cloud of points (P), or based on a rectangular bounding box enclosing said 3D cloud of points (P) and by computing a plane which is parallel to both largest faces of the bounding box and divides the bounding box in two equal volumes; and d) projecting the center point on said plane, thereby obtaining the center of rotation (Pc') of the joint. a) performing, by the user (USR), a series of repetitive movements of sweeping one of the bones or sets of bones around the joint, and simultaneously acquiring 3D positions of the bone or set of bones during said series, thereby obtaining a 3D cloud of points (P); b) computing, in a 3D searching space comprising a 3D position of a termination of the other bone or set of bones, a point referred to as center point (Pc), said center point being a searching point of the 3D searching space for which the standard deviation is the lowest considering a set of distances between the searching point and each point of the 3D cloud of points (P); c) transforming the 3D cloud of points (P) into a plane by applying a principal component analysis on said 3D cloud of points (P), or based on a rectangular bounding box enclosing said 3D cloud of points (P) and by computing a plane which is parallel to both largest faces of the bounding box and divides the bounding box in two equal volumes; and d) projecting the center point on said plane, thereby obtaining the center of rotation (Pc') of the joint.
Method for counteracting land subsidence due to activities, such as production of resources, said activities involving transport of materials to and/or from an underground reservoir (R; R1; R2) through a well (P) having a well bore (B; B1; B2) running in the direction of the reservoir, whereby the method comprises the steps of bringing reinforcing material into a casing present in the wellbore and making the reinforcing material flow out through perforations in the casing for forming a number of reinforcing objects (D; D1; D2) of reinforcing material around the wellbore, characterized in that the method comprises the step of forming cracks in the reservoir (R2) surrounding the wellbore (B2) and filling the cracks with the reinforcing material for forming the reinforcing objects (D2).