mhurhangee/patent-ind-claim-en huggingface dataset:
A motion simulator , comprising: a base plate ; a motion platform arranged on the base plate and movably connected to the base plate ; a first actuator arranged on the motion platform , movably connected to the motion platform ; a base with a base body extending in a length direction and a base extension surface extending in a width direction, wherein the first actuator is movably connected to the base extension surface ; a second actuator movably arranged on the base ; and a carrying platform movably connected to the second actuator , wherein through a connection relationship between the base and the second actuator arranged on the base , the first actuator performs a left-right movement of the carrying platform relative to the motion platform , and the second actuator performs aforward-backward movement of the carrying platform relative to the motion platform , characterized in that the second actuator comprises: a motor configured to perform a circular motion; and a conversion assembly arranged on the base , movably connected between the motor and the carrying platform , wherein the conversion assembly comprises: a linear motion member movably connected to the motor , converting the circular motion of the motor into a linear motion along the length direction of the base , in order to perform the forward-backward movement of the carrying platform . a base plate ; a motion platform arranged on the base plate and movably connected to the base plate ; a first actuator arranged on the motion platform , movably connected to the motion platform ; a base with a base body extending in a length direction and a base extension surface extending in a width direction, wherein the first actuator is movably connected to the base extension surface ; a second actuator movably arranged on the base ; and a carrying platform movably connected to the second actuator , wherein through a connection relationship between the base and the second actuator arranged on the base , the first actuator performs a left-right movement of the carrying platform relative to the motion platform , and the second actuator performs aforward-backward movement of the carrying platform relative to the motion platform , a motor configured to perform a circular motion; and a conversion assembly arranged on the base , movably connected between the motor and the carrying platform , wherein the conversion assembly comprises: a linear motion member movably connected to the motor , converting the circular motion of the motor into a linear motion along the length direction of the base , in order to perform the forward-backward movement of the carrying platform .
A light control film, comprising in this order: a first substrate including a first transparent electrode layer; a light control layer configured to change a scattered state of transmitted light based on a presence or absence of application of a voltage; and a second substrate including a second transparent electrode layer, the light control film being configured to be switchable between a non-scattering mode and a scattering mode based on the scattered state of the transmitted light, wherein a ratio of a haze value of the light control film in the scattering mode to a haze value of the light control film in the non-scattering mode (the haze value in the scattering mode/the haze value in the non-scattering mode) is 8.0 or more, and wherein the light control film has a light transmittance of 80% or more in the non-scattering mode; and wherein the light control layer comprises a polymer-dispersed liquid crystal layer and characterized in that the transparent electrode layers contain crystal grains, wherein the area occupancy ratio of the crystal grains is 30%. a first substrate including a first transparent electrode layer; a light control layer configured to change a scattered state of transmitted light based on a presence or absence of application of a voltage; and a second substrate including a second transparent electrode layer, the light control film being configured to be switchable between a non-scattering mode and a scattering mode based on the scattered state of the transmitted light, wherein a ratio of a haze value of the light control film in the scattering mode to a haze value of the light control film in the non-scattering mode (the haze value in the scattering mode/the haze value in the non-scattering mode) is 8.0 or more, and wherein the light control film has a light transmittance of 80% or more in the non-scattering mode; and wherein the light control layer comprises a polymer-dispersed liquid crystal layer and characterized in that the transparent electrode layers contain crystal grains, wherein the area occupancy ratio of the crystal grains is 30%.
A cutting tool for providing holes in a core material layer , comprising a cutting knife having a cutting edge configured to cut through the core material layer , and a support structure onto which the cutting knife is attached, wherein the support structure is at least partly formed by an elastic material, wherein the support structure comprises an elastic member and a rigid support plate , said elastic member being arranged between the rigid support plate and the cutting knife , characterized in that the rigid support plate forms a core cylinder of a cutting roller , wherein the elastic member is made of vulcanized rubber. a cutting knife having a cutting edge configured to cut through the core material layer , and a support structure onto which the cutting knife is attached, wherein the support structure is at least partly formed by an elastic material, wherein the support structure comprises an elastic member and a rigid support plate , said elastic member being arranged between the rigid support plate and the cutting knife , characterized in that
A method for detecting fraudulent network access points, the method comprising: determining a set of a plurality of network access points currently visible to a first computing device; determining that a first network access point in the set of network access points is broadcasting from a location that is not an expected location based on: identifying a measurement report measuring a strength of signal between the first computing device and the network access points visible to the first computing device; calculating a plurality of positions of the first computing device using trilateration calculations on various combinations of three access points in the set of network access points visible to the first computing device; and determining , based upon results of the trilateration calculations, that inclusion of the first access point of the set of access points in the trilateration calculations causes the trilateration calculation to fail to produce a geolocation or to have an error that is above a threshold; and responsive to determining that inclusion of the first access point in the trilateration calculations causes the trilateration calculation to fail to converge or to have an error value that is above the threshold, marking the first access point as anomalous; and initiating at least one corrective action based upon marking that the first network access point is anomalous. determining a set of a plurality of network access points currently visible to a first computing device; determining that a first network access point in the set of network access points is broadcasting from a location that is not an expected location based on: identifying a measurement report measuring a strength of signal between the first computing device and the network access points visible to the first computing device; calculating a plurality of positions of the first computing device using trilateration calculations on various combinations of three access points in the set of network access points visible to the first computing device; and determining , based upon results of the trilateration calculations, that inclusion of the first access point of the set of access points in the trilateration calculations causes the trilateration calculation to fail to produce a geolocation or to have an error that is above a threshold; and responsive to determining that inclusion of the first access point in the trilateration calculations causes the trilateration calculation to fail to converge or to have an error value that is above the threshold, marking the first access point as anomalous; and initiating at least one corrective action based upon marking that the first network access point is anomalous.
Method for producing microfibrillated cellulose (MFC), characterized in that the method comprising the steps of: - pre-treating of chemical pulp, such that, the pulp reaches a Schopper-Riegler (SR) value above 50, and - refining the pulp, at a consistency of 3-6%, in a refiner with refiner blades, wherein the height of the refiner blades is in the range 2-3 mm. - pre-treating of chemical pulp, such that, the pulp reaches a Schopper-Riegler (SR) value above 50, and - refining the pulp, at a consistency of 3-6%, in a refiner with refiner blades, wherein the height of the refiner blades is in the range 2-3 mm.
A method for determining spindle angles of a steerable wheel axle arrangement , said steerable wheel axle arrangement comprising a wheel axle and a spindle pivotably connected to the wheel axle at a first, outer end position of the wheel axle, wherein at least one wheel axle optical marker is arranged in connection with the wheel axle and a spindle optical marker is arranged in connection with the spindle , wherein the method comprises the steps of: - acquiring (S1), by an image capturing arrangement , an image of the at least one wheel axle optical marker and an image of the spindle optical marker for determining a position of each one of the at least one wheel axle optical marker and the spindle optical marker relative to the image capturing arrangement ; - determining (S2) a wheel axle coordinate system of the at least one wheel axle optical marker relative to the image capturing arrangement ; - determining (S3) a spindle coordinate system of the spindle optical marker relative to the image capturing arrangement ; - determining (S4) a position of the spindle coordinate system relative to the wheel axle coordinate system ; - rotating (S5) said spindle relative to said wheel axle ; - acquiring (S6) at least two different positions of the origin of the spindle coordinate system relative to the wheel axle coordinate system when rotating the spindle; and - determining (S7) a center of rotation and an axis of rotation of the spindle relative to the wheel axle coordinate system based on the at least two different positions. - acquiring (S1), by an image capturing arrangement , an image of the at least one wheel axle optical marker and an image of the spindle optical marker for determining a position of each one of the at least one wheel axle optical marker and the spindle optical marker relative to the image capturing arrangement ; - determining (S2) a wheel axle coordinate system of the at least one wheel axle optical marker relative to the image capturing arrangement ; - determining (S3) a spindle coordinate system of the spindle optical marker relative to the image capturing arrangement ; - determining (S4) a position of the spindle coordinate system relative to the wheel axle coordinate system ; - rotating (S5) said spindle relative to said wheel axle ; - acquiring (S6) at least two different positions of the origin of the spindle coordinate system relative to the wheel axle coordinate system when rotating the spindle; and - determining (S7) a center of rotation and an axis of rotation of the spindle relative to the wheel axle coordinate system based on the at least two different positions. - acquiring (S6) at least two different positions of the origin of the spindle coordinate system relative to the wheel axle coordinate system when rotating the spindle; and - determining (S7) a center of rotation and an axis of rotation of the spindle relative to the wheel axle coordinate system based on the at least two different positions.
A pharmaceutical composition comprising an antibody that specifically binds to pro/latent-myostatin and a pharmaceutically acceptable carrier, wherein the antibody comprises a heavy chain variable region that is at least 98% identical to the amino acid sequence of SEQ ID NO: 25 and a light chain variable region that is at least 98% identical to the amino acid sequence of SEQ ID NO: 31, and wherein the antibody comprises six complementarity determining regions (CDRs): CDRH1, CDRH2, CDRH3, CDRL1, CDRL2, and CDRL3, wherein CDRH1 comprises a sequence as set forth in SEQ ID NO: 1 or 2; CDRH2 comprises a sequence as set forth in SEQ ID NO: 4 or 5; CDRH3 comprises a sequence as set forth in SEQ ID NO: 10; CDRL1 comprises a sequence as set forth in SEQ ID NO: 12 or 13; CDRL2 comprises a sequence as set forth in SEQ ID NO: 18 or 19; and CDRL3 comprises a sequence as set forth in SEQ ID NO: 22. CDRH1 comprises a sequence as set forth in SEQ ID NO: 1 or 2; CDRH2 comprises a sequence as set forth in SEQ ID NO: 4 or 5; CDRH3 comprises a sequence as set forth in SEQ ID NO: 10; CDRL1 comprises a sequence as set forth in SEQ ID NO: 12 or 13; CDRL2 comprises a sequence as set forth in SEQ ID NO: 18 or 19; and CDRL3 comprises a sequence as set forth in SEQ ID NO: 22.
An appliance for charging flexible transport pockets with a transport item , comprising a feed device for feeding the transport item into a transfer zone (TZ), further comprising a suspended conveying device with a plurality of flexible transport pockets which are arranged one after the other in the conveying direction (F) for taking over the transport item in the transfer zone (TZ) and for conveying away the charged transport pockets , wherein the transport pockets each form a receiving compartment for the transport item , as well as a pocket rear wall , and the transport pockets in each case are connected to a conveying member of the suspended conveying device for the individual, suspended conveying of the transport pockets , characterised in that the design of the feed device and of the suspended conveying device and their arrangement relative to one another is such that the transport pockets are moved through the transfer zone (TZ) in a lying formation and in a transfer conveying direction (F), and the transport item , by way of the feed device , is conveyed into the transfer zone (TZ) essentially in the transfer conveying direction (F) of the transport pockets , and in a delivery region (A) is delivered from above onto the transport pockets which are moved through the transfer zone below the feed device , wherein in the open position of the transport pocket , the pocket rear wall forms a rear wall section (24.1) which is extended beyond the receiving compartment , and in the transfer zone (TZ), the extended rear wall section (24.1) forms a support surface for the transport item which is to be received into the receiving compartment of the transport pocket .
A visible percutaneous puncture and dilation irrigation-suction system comprising a main tube which has an end for endoscope insertion, characterized in that : the main tube is contiguous with a sheath tube at another end, an irrigation port is connected to the sheath tube, and a suction tube is connected to the main tube , wherein the sheath tube comprises an inner sheath and an outer sheath joined together in a sleeve type, fluid is pumped into the irrigation port and flow through a space between the inner sheath and outer sheath , and then outflow via a fluid outlet opening in the outer sheath, wherein after the main tube is connected with the sheath tube, the inner sheath and main tube together build a channel via which the endoscope is inserted and withdrawn, or evacuated substances are aspirated; the main tube and the inner sheath are coaxial, the main tube is connected to sheath tube via a sheath body, and the irrigation port is arranged at a junction between the main tube and the sheath tube; the sheath body comprises a sheath main body connected to the main tube and a sheath base sleeved on the outer sheath , a guiding conical surface is provided at a joint part between the sheath base and the main tube , the main tube is mounted to the guiding conical surface , and the sheath main body and the sheath base are fixed by a lock nut .
A process for simultaneous forming and filling of a container from a preform that is configured to form the container , comprising: seating the preform in a cavity of a mold, and expanding the preform within the cavity of the mold by introducing an incompressible fluid under a blow pressure into the preform to stretch the preform to assume a shape of the surrounding cavity, characterized in that a liquid flowrate in a range of 0.5 L/sec to 3.0 L/sec of the incompressible fluid is used for the simultaneous forming and filling of the container , the preform comprising: a high-density polyethylene (HDPE) resin having: a melt flow index of 0.3 - 10.0 grams per 10 minutes at a temperature of 190°C under 2.16 kilograms of load through an extrusion plastometer test fixture with die orifice diameter of 2.0955 mm and length of 8.000 mm, wherein the melt flow index is measured according to the description; a polydispersity index of 4 - 24; and a density of between 0.943 and 0.965 grams per cubic centimeter. seating the preform in a cavity of a mold, and expanding the preform within the cavity of the mold by introducing an incompressible fluid under a blow pressure into the preform to stretch the preform to assume a shape of the surrounding cavity, characterized in that a liquid flowrate in a range of 0.5 L/sec to 3.0 L/sec of the incompressible fluid is used for the simultaneous forming and filling of the container , the preform comprising: a high-density polyethylene (HDPE) resin having: a melt flow index of 0.3 - 10.0 grams per 10 minutes at a temperature of 190°C under 2.16 kilograms of load through an extrusion plastometer test fixture with die orifice diameter of 2.0955 mm and length of 8.000 mm, wherein the melt flow index is measured according to the description; a polydispersity index of 4 - 24; and a density of between 0.943 and 0.965 grams per cubic centimeter. a melt flow index of 0.3 - 10.0 grams per 10 minutes at a temperature of 190°C under 2.16 kilograms of load through an extrusion plastometer test fixture with die orifice diameter of 2.0955 mm and length of 8.000 mm, wherein the melt flow index is measured according to the description; a polydispersity index of 4 - 24; and a density of between 0.943 and 0.965 grams per cubic centimeter.
A stable antibody formulation comprising: - 100 mg/ml of a bispecific anti-IL-4/anti-IL-13 antibody, comprising a light chain of the formula N-VL1-linker-VL2-CL and a heavy chain of the formula N-VH1-linker-VH2-CH1-CH2-CH3, wherein VL1 and VH1 form an IL-13 antigen binding domain and VL2 and VH2 form an IL-4 antigen binding domain, wherein VL1 consists of the amino acid sequence of SEQ ID NO: 1; VH1 consists of the amino acid sequence of SEQ ID NO: 2; VL2 consists of the amino acid sequence of SEQ ID NO: 3; and VH2 consists of the amino acid sequence of SEQ ID NO: 4 or 5, wherein the linker consists of the amino acid sequence of SEQ ID NO:6 wherein CL is the light chain constant domain of the antibody; wherein CH2-CH3 corresponds to the Fc domain of the antibody; and - 10 mM of a buffering system, wherein the buffering system comprises a Tris buffer concentration of 3.7 mM and a Phosphate buffer concentration of 6.3 mM; - 0.2% (w/v) polysorbate 80; - 5% (w/v) sucrose; and - 3% (w/v) mannitol; wherein the pH of the formulation is pH 7; wherein the bispecific antibody is a humanized IgG4 bispecific antibody. - 100 mg/ml of a bispecific anti-IL-4/anti-IL-13 antibody, comprising a light chain of the formula N-VL1-linker-VL2-CL and a heavy chain of the formula N-VH1-linker-VH2-CH1-CH2-CH3, wherein VL1 and VH1 form an IL-13 antigen binding domain and VL2 and VH2 form an IL-4 antigen binding domain, wherein VL1 consists of the amino acid sequence of SEQ ID NO: 1; VH1 consists of the amino acid sequence of SEQ ID NO: 2; VL2 consists of the amino acid sequence of SEQ ID NO: 3; and VH2 consists of the amino acid sequence of SEQ ID NO: 4 or 5, wherein the linker consists of the amino acid sequence of SEQ ID NO:6 wherein CL is the light chain constant domain of the antibody; wherein CH2-CH3 corresponds to the Fc domain of the antibody; and - 10 mM of a buffering system, wherein the buffering system comprises a Tris buffer concentration of 3.7 mM and a Phosphate buffer concentration of 6.3 mM; - 0.2% (w/v) polysorbate 80; - 5% (w/v) sucrose; and - 3% (w/v) mannitol; wherein the pH of the formulation is pH 7; wherein the bispecific antibody is a humanized IgG4 bispecific antibody.
A system for zone passage control for a zone (OZ23, OZ4, OZ5, OZ6, OZ9) of an autonomously operating mobile vehicle in a worksite divided into a plurality of operation zones (OZ23, OZ4, OZ5, OZ6, OZ9) by checkpoints between the plurality of operation zones (OZ23, OZ4, OZ5, OZ6, OZ9), whereby access and exit to each operation zone is provided through checkpoints, the system comprising at least a set of detection units , at least one detection unit being placed at each checkpoint , configured to detect at least one mobile object entering and/or exiting the zone, a set of identification units , at least one identification unit being placed at each checkpoint , configured to identify the type of said at least one mobile object entering and/or exiting the zone, wherein the type of the at least one mobile object is an autonomous mining vehicle or a non-autonomous mining vehicle, and a central controller being arranged in operational connection with the set of the detection units and with the set of the identification units , and wherein the central controller is configured to determine a state of the zone on the basis of data supplied by the set of the detection units and the set of the identification units , the state of the zone comprising data about a number and a type of mobile objects existing in the zone and a number and a type of mobile objects entering or exiting the zone, to determine, on the basis of the determined state of the zone, an admissibility level (AL) for a mobile object to enter the zone, wherein the admissibility level for the mobile object to enter the zone is set to be negative if it is determined on the basis of the determined state of the zone that the mobile object is not allowed to enter the zone, wherein the admissibility level is determined to be negative for a non-autonomous mining vehicle entering the zone in response to at least one autonomous mining vehicle existing in the zone, and to provide, on the basis of the determined admissibility level, a control signal (CS) to stop the at least one autonomously operating mobile vehicle existing in the zone in response to the determined admissibility level being negative for the mobile object entered the zone.