mhurhangee/patent-ind-claim-en huggingface dataset:
A coronary sinus and tricuspid valve tissue protective device for protecting tissues of coronary sinus and tricuspid valve during mitral valve cerclage annuloplasty, the coronary sinus and tricuspid valve tissue protective device comprising: a coronary sinus tube that is a hollow cylindrical tube for protecting tissues of the coronary sinus; and a tricuspid valve tube that is a hollow cylindrical tube for protecting tissues of the tricuspid valve and of interventricular septum; characterized in that the coronary sinus and tricuspid valve tissue protective device further comprises a stem in which the coronary sinus tube and the tricuspid valve tube extend to be fixed and combined to each other. a coronary sinus tube that is a hollow cylindrical tube for protecting tissues of the coronary sinus; and a tricuspid valve tube that is a hollow cylindrical tube for protecting tissues of the tricuspid valve and of interventricular septum; characterized in that the coronary sinus and tricuspid valve tissue protective device further comprises a stem in which the coronary sinus tube and the tricuspid valve tube extend to be fixed and combined to each other.
A portable directional antenna , which is designed to detect bearing data of an interference source transmitting an electromagnetic interference signal , with a built-in camera , which is designed to record image information from the surroundings of the directional antenna , in particular from the surroundings of the interference source , with a control device , which is coupled with the camera and which is configured in such a way to automatically trigger the camera dependent on a specified condition, wherein the specified condition denotes the exceeding of at least one threshold value with respect to the detected interference signal . with a built-in camera , which is designed to record image information from the surroundings of the directional antenna , in particular from the surroundings of the interference source , with a control device , which is coupled with the camera and which is configured in such a way to automatically trigger the camera dependent on a specified condition, wherein the specified condition denotes the exceeding of at least one threshold value with respect to the detected interference signal .
Fastening anchor for an insulating element , in particular of foamed plastic such as e.g. EPS, for example for an insulating element forming a winding shaft housing of a building opening shading device, having an anchor element which has a shank extending from its tip to its head , wherein the shank bears a thread which extends at least once completely around it and has a thread depth which is sufficient for anchoring in the insulating element, and wherein an inner recess extends in the axial direction of the shank from a head-side end face into the anchor element , characterized in that the anchor element has a bolt receptacle for a fastening bolt extending through a wall circumferentially surrounding the inner recess .
Method for treating plants in a field, comprising the following steps: selecting (S102) a treatment tool for treating plants, the treatment tool having a specific spatial accuracy; capturing (S104) an image of the field, the image being correlated with positional information; determining (S106, S206) a position of a plant to be treated in the field by means of semantic segmentation of the image , the position of the plant being determined with a spatial resolution which corresponds to the spatial accuracy of the treatment tool; guiding (S108) the treatment tool to the position of the plant; and treating (S110) the plant with the treatment tool. selecting (S102) a treatment tool for treating plants, the treatment tool having a specific spatial accuracy; capturing (S104) an image of the field, the image being correlated with positional information; determining (S106, S206) a position of a plant to be treated in the field by means of semantic segmentation of the image , the position of the plant being determined with a spatial resolution which corresponds to the spatial accuracy of the treatment tool; guiding (S108) the treatment tool to the position of the plant; and treating (S110) the plant with the treatment tool.
A dual specificity polypeptide molecule comprising a first polypeptide chain and a second polypeptide chain, wherein: a) the first polypeptide chain comprises ai) a first variable domain (VD1) of an antibody, aii) a first variable domain (VR1) of a T cell receptor (TCR), and aiii) a first linker (LINK1) connecting said domains; b) the second polypeptide chain comprises bi) a second variable domain (VR2) of a TCR, bii) a second variable domain (VD2) of an antibody, and biii) a second linker (LINK2) connecting said domains; wherein said first variable domain (VD1) and said second variable domain (VD2) associate to form a first binding site (VD1)(VD2) that specifically binds a cell surface antigen of a human immune effector cell; wherein the first variable domain (VR1) is one of a TCR Vα domain and a TCR Vβ domain, and the second variable domain (VR2) is the other one of the TCR Vα domain and the TCR Vβ domain, said first variable domain (VR1) and said second variable domain (VR2) associate to form a second binding site (VR1)(VR2) that specifically binds an MHC-associated peptide epitope; wherein said two polypeptide chains are fused to human IgG hinge domains and/or human IgG Fc domains or dimerizing portions thereof; wherein said two polypeptide chains are connected by covalent and/or non-covalent bonds between said hinge domains and/or Fc-domains; wherein said dual specificity polypeptide molecule is capable of simultaneously binding the cell surface molecule and the MHC-associated peptide epitope; and wherein the order of the variable domains in the two polypeptide chains is selected from VD1-VR1 and VR2-VD2 or VD2-VR2 and VR1-VD1. a) the first polypeptide chain comprises ai) a first variable domain (VD1) of an antibody, aii) a first variable domain (VR1) of a T cell receptor (TCR), and aiii) a first linker (LINK1) connecting said domains; ai) a first variable domain (VD1) of an antibody, aii) a first variable domain (VR1) of a T cell receptor (TCR), and aiii) a first linker (LINK1) connecting said domains; b) the second polypeptide chain comprises bi) a second variable domain (VR2) of a TCR, bii) a second variable domain (VD2) of an antibody, and biii) a second linker (LINK2) connecting said domains; bi) a second variable domain (VR2) of a TCR, bii) a second variable domain (VD2) of an antibody, and biii) a second linker (LINK2) connecting said domains;
Cerebrospinal fluid drainage system for ventricular drainage, comprising an EVD or VPS probe consisting of a flexible tube and a stylus provided at its distal end with an ultrasound transducer , which can be inserted into the tube , and an echograph comprising a screen for displaying an anatomical image calculated in B-mode as a function of the signals supplied by the ultrasound transducer , - the stylus comprises a rigid tube with an outside diameter corresponding to the inside diameter of the tube , the rigid tube containing only the supply wires of the ultrasound transducer , excluding an optical fiber, the rigid tube provided at its distal end with a transducer of a diameter identical to the diameter of the tube and having an imaging depth in the axis of the tube , the stylus comprising a proximal securing system of the complex, characterized in that the distal end of the tube is closed by a closed, deformable hollow tip forming a pocket for receiving a transechogenic liquid. - the stylus comprises a rigid tube with an outside diameter corresponding to the inside diameter of the tube , the rigid tube containing only the supply wires of the ultrasound transducer , excluding an optical fiber, the rigid tube provided at its distal end with a transducer of a diameter identical to the diameter of the tube and having an imaging depth in the axis of the tube , the stylus comprising a proximal securing system of the complex,
An agricultural distribution machine , preferably a field sprayer or a pneumatic fertilizer spreader, comprising a carrier vehicle ; a distributor boom for spreading material, such as fertilizer, plant protection agent or seed, which is indirectly or directly arranged on the carrier vehicle so as to be movable at least about a pivot axis (A) running in the direction of travel; a controlling apparatus , a controlling force being able to be generated thereby in order to move the distributor boom about the pivot axis (A); a first sensor apparatus for detecting an angular rate (ω) of the distributor boom; and a control apparatus for controlling and/or regulating a rotational position of the distributor boom about the pivot axis (A), wherein the control apparatus is configured to implement a first operating mode (S3) in order to hold the distributor boom in a currently set target rotational position in which disturbance torques acting on the distributor boom, which result from movements of the carrier vehicle about the longitudinal axis, are compensated in order to hold the target rotational position, characterized in that in the first operating mode (S3) by determining corresponding controlling signals for activating the controlling apparatus, the control apparatus is configured to regulate the angular rate (ω) detected by the first sensor apparatus as a controlled variable to a target value which has an absolute value of between zero and a threshold value (ω 0 ). a carrier vehicle ; a distributor boom for spreading material, such as fertilizer, plant protection agent or seed, which is indirectly or directly arranged on the carrier vehicle so as to be movable at least about a pivot axis (A) running in the direction of travel; a controlling apparatus , a controlling force being able to be generated thereby in order to move the distributor boom about the pivot axis (A); a first sensor apparatus for detecting an angular rate (ω) of the distributor boom; and a control apparatus for controlling and/or regulating a rotational position of the distributor boom about the pivot axis (A), wherein the control apparatus is configured to implement a first operating mode (S3) in order to hold the distributor boom in a currently set target rotational position in which disturbance torques acting on the distributor boom, which result from movements of the carrier vehicle about the longitudinal axis, are compensated in order to hold the target rotational position, characterized in that in the first operating mode (S3) by determining corresponding controlling signals for activating the controlling apparatus, the control apparatus is configured to regulate the angular rate (ω) detected by the first sensor apparatus as a controlled variable to a target value which has an absolute value of between zero and a threshold value (ω 0 ).
A mass-continuous process for the preparation of rubber-reinforced vinyl aromatic (co)polymers with a strictly bimodal morphology, consisting of from 55 to 90% by weight of rigid polymeric matrix and from 10 to 45% by weight of a rubbery phase dispersed inside said rigid polymeric matrix, in the form of grafted and occluded particles and wherein said rubber particles consist of from 60 to 99% by weight of particles with a capsule or "core-shell" morphology and from 1 to 40% by weight of particles with a "salami" morphology, said process comprising: a. dissolving from 3 to 20% by weight of a rubber selected from homopolymers and copolymers of 1,3-alkadienes containing 40-100% by weight of 1,3-alkadiene monomer and 0-60% by weight of one or more mono-ethylenically unsaturated monomers, having a solubility parameter (δ 1 ), and from 0.05 to 8.0% by weight of a rubber selected from homopolymers and copolymers of olefins or 1,3-alkadienes incompatible with the previous rubber, having a solubility parameter (δ 2 ) which is such that δ 1 - δ 2 ≥ 0.5, in a liquid essentially consisting of at least one vinyl aromatic monomer; b. polymerizing the resulting solution at a temperature ranging from 50 to 250°C optionally in the presence of polymerization initiators and/or chain transfer agents; c. recovering the vinyl aromatic (co)polymer thus obtained. a. dissolving from 3 to 20% by weight of a rubber selected from homopolymers and copolymers of 1,3-alkadienes containing 40-100% by weight of 1,3-alkadiene monomer and 0-60% by weight of one or more mono-ethylenically unsaturated monomers, having a solubility parameter (δ 1 ), and from 0.05 to 8.0% by weight of a rubber selected from homopolymers and copolymers of olefins or 1,3-alkadienes incompatible with the previous rubber, having a solubility parameter (δ 2 ) which is such that δ 1 - δ 2 ≥ 0.5, in a liquid essentially consisting of at least one vinyl aromatic monomer; b. polymerizing the resulting solution at a temperature ranging from 50 to 250°C optionally in the presence of polymerization initiators and/or chain transfer agents; c. recovering the vinyl aromatic (co)polymer thus obtained.
A process for the preparation of mammalian-derived HA-pancreatin including lipases, proteases and amylases, having specific lipase activity of at least 120 IU/mg, comprising: a1.1) suspending starting mammalian pancreatin and precipitating a first insoluble portion in a solvent having a Hildebrand solubility parameter of 38(MPa) 0.5 ; a1.2) separating the soluble portion of step a1.1 from the first insoluble portion; a1.3) precipitating a second insoluble portion by adding to the soluble portion of step a1.2 at least one organic solvent thereof to obtain a mixture having a Hildebrand solubility parameter of 36; a2) separating the second insoluble portion of step a 1.3 from the soluble portion; a3.1) drying the first insoluble portion of step a1 .2; a3.2) drying the second insoluble portion of step a2; a4) mixing together the first insoluble portion of step a3.1 with the second insoluble portion of step a3.2, wherein (i) said solvent used in step a1.1 is a mixture of acetone and buffer solution having a pH of 7, (ii) the process temperature is 4°C, (iii) the mixture of step a1.3 is a mixture of acetone and buffer solution having a pH of 7, and (iv) the pancreatin of step a1.1 is in an amount of 0.1 g/ml. a1.1) suspending starting mammalian pancreatin and precipitating a first insoluble portion in a solvent having a Hildebrand solubility parameter of 38(MPa) 0.5 ; a1.2) separating the soluble portion of step a1.1 from the first insoluble portion; a1.3) precipitating a second insoluble portion by adding to the soluble portion of step a1.2 at least one organic solvent thereof to obtain a mixture having a Hildebrand solubility parameter of 36; a2) separating the second insoluble portion of step a 1.3 from the soluble portion; a3.1) drying the first insoluble portion of step a1 .2; a3.2) drying the second insoluble portion of step a2; a4) mixing together the first insoluble portion of step a3.1 with the second insoluble portion of step a3.2, wherein (i) said solvent used in step a1.1 is a mixture of acetone and buffer solution having a pH of 7, (ii) the process temperature is 4°C, (iii) the mixture of step a1.3 is a mixture of acetone and buffer solution having a pH of 7, and (iv) the pancreatin of step a1.1 is in an amount of 0.1 g/ml. (i) said solvent used in step a1.1 is a mixture of acetone and buffer solution having a pH of 7, (ii) the process temperature is 4°C, (iii) the mixture of step a1.3 is a mixture of acetone and buffer solution having a pH of 7, and (iv) the pancreatin of step a1.1 is in an amount of 0.1 g/ml.
A mobile station apparatus comprising: a calculating unit configured to calculate a channel quality indicator, CQI, value for each of groups, into which subcarriers that are consecutive in a frequency domain are divided in a predefined unit of a time domain, the CQI value representing channel quality according to a first step size, by which a range of the CQI value is divided; a generating unit configured to generate feedback information based on the calculated CQI value for each of the groups; and a transmitting unit configured to transmit the feedback information, wherein: said calculating unit calculates a relative value for the groups, the relative value being a difference of the calculated CQI value with respect to another CQI value, and transforms the relative value according to a second step size, which includes a step size that is different than the first step size and by which a range of the difference is divided, and said generating unit generates the feedback information forming a data sequence, in which the other CQI value is positioned at the beginning and the relative values for the groups are positioned after the other CQI value in order of increasing frequency or decreasing frequency. a calculating unit configured to calculate a channel quality indicator, CQI, value for each of groups, into which subcarriers that are consecutive in a frequency domain are divided in a predefined unit of a time domain, the CQI value representing channel quality according to a first step size, by which a range of the CQI value is divided; a generating unit configured to generate feedback information based on the calculated CQI value for each of the groups; and a transmitting unit configured to transmit the feedback information, wherein: said calculating unit calculates a relative value for the groups, the relative value being a difference of the calculated CQI value with respect to another CQI value, and transforms the relative value according to a second step size, which includes a step size that is different than the first step size and by which a range of the difference is divided, and said generating unit generates the feedback information forming a data sequence, in which the other CQI value is positioned at the beginning and the relative values for the groups are positioned after the other CQI value in order of increasing frequency or decreasing frequency. said calculating unit calculates a relative value for the groups, the relative value being a difference of the calculated CQI value with respect to another CQI value, and transforms the relative value according to a second step size, which includes a step size that is different than the first step size and by which a range of the difference is divided, and said generating unit generates the feedback information forming a data sequence, in which the other CQI value is positioned at the beginning and the relative values for the groups are positioned after the other CQI value in order of increasing frequency or decreasing frequency.
Vehicle window, comprising a glass pane and a frame which surrounds the glass pane , as well as a rubber clamp which can be introduced into a peripheral recess in the frame with a positive fit and which holds the glass pane in its installation position, with a side facing towards the vehicle interior and an outer side, wherein the peripheral recess for the rubber clamp is arranged at a position on the frame facing towards the vehicle interior and the frame enables a viewing area with rounded corners from the outer side of the vehicle, characterised in that the frame enables a viewing area with angular corners from the inner side of the vehicle, wherein the frame is designed in a two-part manner consisting of an outer frame and an inner frame , wherein the dividing line between the outer frame and the inner frame is oriented in parallel with ends of the pane and wherein the outer frame is constructed from at least two metal profiles which are butt-welded to one another and wherein the inner frame is constructed from a plurality of metal profiles with a mitre cut in relation to one another.
A catheter assembly comprising: a catheter; a needle having a distal tip; a catheter hub carrying the catheter; a needle shield connected to the catheter hub when the needle is in a first position; and a clip disposed in the needle shield that cooperates with the needle , wherein: the clip engages the catheter hub in the first position of the needle ; the clip disengages the catheter hub when the needle is retracted to a second position to cover at least a portion of the needle ; characterized in that the clip includes a spade that attaches the clip to the needle shield ; and an outer surface of the spade is exposed to an outside of the needle shield . a catheter; a needle having a distal tip; a catheter hub carrying the catheter; a needle shield connected to the catheter hub when the needle is in a first position; and a clip disposed in the needle shield that cooperates with the needle , wherein: the clip engages the catheter hub in the first position of the needle ; the clip disengages the catheter hub when the needle is retracted to a second position to cover at least a portion of the needle ; characterized in that the clip includes a spade that attaches the clip to the needle shield ; and an outer surface of the spade is exposed to an outside of the needle shield . the clip engages the catheter hub in the first position of the needle ; the clip disengages the catheter hub when the needle is retracted to a second position to cover at least a portion of the needle ; characterized in that the clip includes a spade that attaches the clip to the needle shield ; and an outer surface of the spade is exposed to an outside of the needle shield .
A method for influencing a transmission shift strategy of a motor vehicle, for example of a utility vehicle, in which a shift reaction, in particular a desired gear step, on a route section laying ahead is determined for a predicted driving strategy in accordance with topography data of the route section lying ahead, comprising the steps: - prediction of an overrun mode on a route section lying ahead in accordance with topography data, in particular positive gradient and negative gradient information, of the route section lying ahead (S1); - determining a desired speed for the predicted overrun mode (S2); - predictively determining a progression of a downgrade force acting on the motor vehicle during the overrun mode (S3); - for each gear step which can be engaged in the overrun mode, predictive determination of a maximum overall braking force which can be generated by the motor vehicle in the overrun mode, with the assumption that the motor vehicle is moved at the determined desired speed in the overrun mode, wherein a braking force which can be achieved by a service brake is not taken into account (S4); - determining a pre-selection (A) of possible gear steps for the predicted overrun mode, wherein a gear step whose maximum overall braking force which can be generated in the overrun mode is greater than a maximum of the determined progression of the downgrade force is added to the pre-selection (S5); - selection of a gear step from the pre-selection of possible gear steps as a desired gear step for the overrun mode (S6). - prediction of an overrun mode on a route section lying ahead in accordance with topography data, in particular positive gradient and negative gradient information, of the route section lying ahead (S1); - determining a desired speed for the predicted overrun mode (S2); - predictively determining a progression of a downgrade force acting on the motor vehicle during the overrun mode (S3); - for each gear step which can be engaged in the overrun mode, predictive determination of a maximum overall braking force which can be generated by the motor vehicle in the overrun mode, with the assumption that the motor vehicle is moved at the determined desired speed in the overrun mode, wherein a braking force which can be achieved by a service brake is not taken into account (S4); - determining a pre-selection (A) of possible gear steps for the predicted overrun mode, wherein a gear step whose maximum overall braking force which can be generated in the overrun mode is greater than a maximum of the determined progression of the downgrade force is added to the pre-selection (S5); - selection of a gear step from the pre-selection of possible gear steps as a desired gear step for the overrun mode (S6).