mhurhangee/patent-ind-claim-en huggingface dataset:
A composite radiative cooling film, comprising a top layer and a reflective layer disposed below the top layer , a material of the top layer comprises at least one polymer, the at least one polymer has an emissivity that is greater than or equal to 80% in a wavelength range of 7 μm to 14 μm, measured as disclosed in the description; the top layer comprises a first emissive layer adjacent to the reflective layer and a second emissive layer away from the reflective layer , a material of the first emissive layer comprises a first polymer, the first emissive layer further comprises a plurality of first pores, the plurality of first pores are distributed in the first emissive layer , a material of the second emissive layer comprises a second polymer, the second emissive layer further comprises a plurality of second pores, the plurality of second pores are distributed in the second emissive layer , a pore size of the plurality of first pores is in a range of 1 μm to 20 μm, and a pore size of the plurality of second pores is in a range of 1 nm to 200 nm; the first emissive layer further comprises a first additive embedded in at least part of the plurality of first pores; the second emissive layer further comprises a second additive embedded in at least part of the plurality of second pores; the first additive and the second additive respectively comprise an organic filler comprising a polymer containing a C-O functional group, a polymer containing a C-Cl functional group, a polymer containing a C-F functional group, a polymer containing a C-N functional group, a polymer containing a C-Si functional group, a polymer containing a Si-O functional group, or a combination thereof. the top layer comprises a first emissive layer adjacent to the reflective layer and a second emissive layer away from the reflective layer , a material of the first emissive layer comprises a first polymer, the first emissive layer further comprises a plurality of first pores, the plurality of first pores are distributed in the first emissive layer , a material of the second emissive layer comprises a second polymer, the second emissive layer further comprises a plurality of second pores, the plurality of second pores are distributed in the second emissive layer , a pore size of the plurality of first pores is in a range of 1 μm to 20 μm, and a pore size of the plurality of second pores is in a range of 1 nm to 200 nm; the first emissive layer further comprises a first additive embedded in at least part of the plurality of first pores; the second emissive layer further comprises a second additive embedded in at least part of the plurality of second pores; the first additive and the second additive respectively comprise an organic filler comprising a polymer containing a C-O functional group, a polymer containing a C-Cl functional group, a polymer containing a C-F functional group, a polymer containing a C-N functional group, a polymer containing a C-Si functional group, a polymer containing a Si-O functional group, or a combination thereof.
Method for verification of a measurement device , comprising - performing in the location of the measurement device a measurement of a first quantity, which relates to a first object, with the measurement device under verification in order to achieve a measurement result, - forming data about a reference value of the measured quantity, - comparing the measurement result with the reference value , and - accepting or rejecting the verification of the measurement device on the basis of said comparison, characterised in that the method further comprises: - performing imaging phases related to the verification with imaging means for forming image data, - transferring said image data from the location of the measurement device to a thereto remote location for monitoring the verification in the remote location , - transferring from the location of the measurement device to the remote location data about said measurement result e.g. in the form of image data or numeric data, - transferring from the location of the measurement device to the remote location data about said reference data e.g. in the form of image data or numeric data, wherein the rejecting or accepting the verification is made on the basis of the information transferred from the location of the measurement device to the remote location . - performing in the location of the measurement device a measurement of a first quantity, which relates to a first object, with the measurement device under verification in order to achieve a measurement result, - forming data about a reference value of the measured quantity, - comparing the measurement result with the reference value , and - accepting or rejecting the verification of the measurement device on the basis of said comparison, characterised in that the method further comprises: - performing imaging phases related to the verification with imaging means for forming image data, - transferring said image data from the location of the measurement device to a thereto remote location for monitoring the verification in the remote location , - transferring from the location of the measurement device to the remote location data about said measurement result e.g. in the form of image data or numeric data, - transferring from the location of the measurement device to the remote location data about said reference data e.g. in the form of image data or numeric data, - performing imaging phases related to the verification with imaging means for forming image data, - transferring said image data from the location of the measurement device to a thereto remote location for monitoring the verification in the remote location , - transferring from the location of the measurement device to the remote location data about said measurement result e.g. in the form of image data or numeric data, - transferring from the location of the measurement device to the remote location data about said reference data e.g. in the form of image data or numeric data,
A label holder system for an electrical terminal block comprising a label holder device longitudinal according to a direction of extension, the label holder device comprising a central section with a thinned portion and a first end in the direction of extension and a second end in the direction opposite to the direction of extension, the system comprising a first fastening element configured to be disposed on the terminal block , the first end and/or the second end being configured to cooperate with the first fastening element in a detachable manner, the thinned portion being scored, the system being characterized in that the first end and/or the second end are configured to cooperate with the first fastening element according to a rotatable connection, between a first position in which a first face of the label holder device is oriented towards the terminal block and a second face of the label holder device is oriented in a direction opposite to the terminal block , and a second position in which the first face of the label holder device is oriented in a direction opposite to the terminal block and the second face of the label holder device is oriented towards the terminal block .
An antibody that binds prostatic acid phosphatase (ACPP), wherein the antibody comprises: a heavy chain variable region (HVR) comprising amino acid sequence SEQ ID NO: 83 and a light chain variable region (LVR) comprising amino acid sequence SEQ ID NO: 82.
A sensor , comprising: at least a first pair of sensing elements (302a-b) comprising first and second magnetic field sensing elements and a second pair of sensing elements (302c-d) comprising third and fourth magnetic field sensing elements for measuring field change in response to movement of a target , wherein each of the magnetic field sensing elements in the first and second pairs of sensing elements is located on the circumference of a planar circle, wherein each of the magnetic field sensing elements has its most sensitive direction to a magnetic field radial to the planar circle, wherein the first magnetic field sensing element is positioned to be diametrically opposite the second magnetic field sensing element, and wherein the third magnetic field sensing element is positioned to be diametrically opposite the fourth magnetic field sensing element, wherein the first and second magnetic field sensing elements are configured to measure positive field in the same direction and the third and fourth magnetic field sensing elements are configured to measure positive field in the same direction, wherein a plane of the planar circle is configured for positioning to be parallel to a tangent of the target which has teeth and valleys, wherein the sensor is configured to subtract a voltage generated by the second magnetic field sensing element from a voltage generated by the first magnetic field sensing element to provide a first voltage, and wherein the sensor is configured to subtract a voltage generated by the third magnetic field sensing element from a voltage generated by the fourth magnetic field sensing element to generate a second voltage, and wherein the sensor is configured to combine by either averaging or summing the first and second voltages to generate a third voltage, characterized in that a threshold is set on the third voltage based on a position of either a tooth or valley of the target to determine a position of the target during start up.
A flywheel device , comprising: a rotor for storing energy, the rotor comprising a primary rotational mass having a top surface and a bottom surface; a shaft coupled to the rotor , the primary rotational mass of the rotor configured to rotate around a central axis of the shaft; a housing enclosing the rotor , the housing including a top plate , a bottom plate , and side walls , the housing defining a hole aligned with the central axis of the shaft; a bearing housing substantially filling the hole aligned with the center axis of the rotor , the bearing housing including a bearing coupled to the shaft; a plurality of bottom posts configured to physically contact the bottom surface of the primary rotational mass of the rotor during transport of the flywheel assembly to prevent motion of the rotor during transport of the flywheel assembly, the plurality of posts fixedly attached to the housing ; and a lifting mechanism, attached to the bearing housing , configured to lift the bearing housing during installation, from a transport position at which the rotor rests on the plurality of bottom posts , such that the rotor is lifted off the plurality of bottom posts enabling the primary rotational mass to rotate around the central axis . a rotor for storing energy, the rotor comprising a primary rotational mass having a top surface and a bottom surface; a shaft coupled to the rotor , the primary rotational mass of the rotor configured to rotate around a central axis of the shaft; a housing enclosing the rotor , the housing including a top plate , a bottom plate , and side walls , the housing defining a hole aligned with the central axis of the shaft; a bearing housing substantially filling the hole aligned with the center axis of the rotor , the bearing housing including a bearing coupled to the shaft; a plurality of bottom posts configured to physically contact the bottom surface of the primary rotational mass of the rotor during transport of the flywheel assembly to prevent motion of the rotor during transport of the flywheel assembly, the plurality of posts fixedly attached to the housing ; and a lifting mechanism, attached to the bearing housing , configured to lift the bearing housing during installation, from a transport position at which the rotor rests on the plurality of bottom posts , such that the rotor is lifted off the plurality of bottom posts enabling the primary rotational mass to rotate around the central axis .
A medical device for denervating renal perivascular nerves comprising a system having a refrigerant source , a controller for the refrigerant source and a catheter comprising a flexible shaft for insertion into the renal artery of a patient, the shaft having an inner lumen for supplying a refrigerant and a cryoballoon arranged at the distal end of the shaft, wherein at least one bipolar electrode is arranged on the cryoballoon for emitting an electrical impulse for stimulating the perivascular nerves, characterized in that the medical device is designed such that, when in use, the cryoballoon touches the wall of the renal artery over an entire length of more than 2.5 cm, cools it by introducing a refrigerant and thereby ablates over an entire length of at least 2.5 cm over the entire circumference, wherein the catheter has a pressure sensor for direct invasive blood pressure measurement during denervation and, in the case of use, measures the rate of pressure rise delta mmHg/s with the sensor, and the control unit is designed to control the source of refrigerant or the supply of refrigerant into the cryoballoon as a function of the rate of rise of a patient's blood pressure.
A biosensor that uses magnetic particle labeling for detection of a target analyte in an aqueous sample comprising; an integrated circuit having a surface exposed to the aqueous sample ; a light source that illuminates the surface of the integrated circuit ; an array of optical sensors embedded in the integrated circuit ; and magnetic particles that display paramagnetic behavior, wherein the magnetic particles react with the target analyte in the aqueous sample and bind strongly and/or specifically to the surface of the integrated circuit , and wherein specifically bound magnetic particles cast shadows and reduce the amount of light transmitted from the light source to the optical sensors ; and wherein each of said optical sensors has a size that detects one magnetic particle specifically bound to the surface of the integrated circuit . an integrated circuit having a surface exposed to the aqueous sample ; a light source that illuminates the surface of the integrated circuit ; an array of optical sensors embedded in the integrated circuit ; and magnetic particles that display paramagnetic behavior, wherein the magnetic particles react with the target analyte in the aqueous sample and bind strongly and/or specifically to the surface of the integrated circuit , and wherein specifically bound magnetic particles cast shadows and reduce the amount of light transmitted from the light source to the optical sensors ; and wherein each of said optical sensors has a size that detects one magnetic particle specifically bound to the surface of the integrated circuit .
Use of a micro-filament planar structure comprising at least one tier A which comprises melt-spun composite filaments which are laid so as to form a non-woven fabric and which have a cross section having a pie or a hollow-pie structure and which, by means of fluid jets, in particular water jets, are at least in part split and consolidated so as to form elementary filaments having a mean yarn count of less than 0.15 dtex, as a surface tier in a technical packaging material.
A control module for an ion implanter having a power supply (PS), the power supply (PS) comprising: - an electricity generator (HT) having its positive pole connected to the ground, - a first switch (SW1) having its first pole connected to the negative pole of said generator (HT) and having its second pole connected to the outlet terminal (S) of this power supply, and - a second switch (SW2) having its first pole connected to said outlet terminal (S) and having its second pole connected to a neutralization terminal (N), the control module being characterized in that said control module comprises a current measurement circuit (AMP) configured so as to measure, in use, the displacement current that flows between the second pole of said second switch (SW2) and said neutralization terminal (N). - an electricity generator (HT) having its positive pole connected to the ground, - a first switch (SW1) having its first pole connected to the negative pole of said generator (HT) and having its second pole connected to the outlet terminal (S) of this power supply, and - a second switch (SW2) having its first pole connected to said outlet terminal (S) and having its second pole connected to a neutralization terminal (N),
Hose coupling comprising a male part and a female part ; the male part being insertable in the female part , and the male part comprising a circumferential groove ; the female part comprising a non-return valve , a sleeve , and a locking pawl ; the non-return valve is configured to control the flow through the hose coupling, and the non-return valve is surrounded with the sleeve ; and the sleeve being a spring loaded axially displaceable sleeve , in a first displacement, interacting with the locking pawl to engage the locking pawl with the circumferential groove in the male part and to lock the male part to the female part , and in another displacement of the spring loaded axially displaceable sleeve the locking pawl obstructing the male part in an partial drawn out position; wherein the female part is provided with at least one axially orientated elongated opening , the opening extending through a sleeve partition of the female part , and the opening collaborating with the locking pawl providing a combined obstructing and locking function through an axially displacement of an internally leaning circumferential groove of the spring loaded sleeve whereby the locking pawl is moved out of or in engagement with different peripheral projections on the outside circumferential surface of the male part .
A shrink label capable to shrink under exposure to heat, wherein the shrink label comprises a multilayer shrink film being an oriented and non-annealed film and including layers in the following order: a first skin layer, a core layer and a second skin layer, and wherein the first skin layer comprises: between 20 and 60 wt.% of random copolymer of propylene and ethylene, between 20 and 60 wt.% of at least one of the following propylene terpolymers: 1-butene/propylene/ethylene, propylene/ethylene/1-hexene and propylene/ethylene/1-butene, and between 2 and 30 wt.% of polyolefin plastomer and/or elastomer. between 20 and 60 wt.% of random copolymer of propylene and ethylene, between 20 and 60 wt.% of at least one of the following propylene terpolymers: 1-butene/propylene/ethylene, propylene/ethylene/1-hexene and propylene/ethylene/1-butene, and between 2 and 30 wt.% of polyolefin plastomer and/or elastomer. 1-butene/propylene/ethylene, propylene/ethylene/1-hexene and propylene/ethylene/1-butene, and between 2 and 30 wt.% of polyolefin plastomer and/or elastomer.
A laminated hard coating film obtained by a process comprising: a) photocuring a hard coating composition including a tri- to hexa-functional acrylate monomer, a photocurable elastic polymer, inorganic particles, a photoinitiator, an organic solvent and optionally an additive to obtain a photocured single hard coating layer including inorganic particles dispersed in a copolymer, wherein the copolymer is a copolymer in which 5 to 20 weight parts of the elastic polymer is crosslinked with 80 to 95 weight parts of the tri- to hexa-functional acrylate monomer based on 100 weight parts thereof b) laminating a substrate on one or both sides of the photocured hard coating layer, wherein the laminated hard coating film does not crack when a 22g steel ball is freely dropped 10 times thereon from a height of 50 cm, and wherein the laminated hard coating film exhibits a pencil hardness of 7H or more at a load of 1 kg, wherein the pencil hardness is evaluated according to JIS K5400 by doubly rubbing the laminated hard coating film three times with a pencil hardness meter under a load of 1 kg. a) photocuring a hard coating composition including a tri- to hexa-functional acrylate monomer, a photocurable elastic polymer, inorganic particles, a photoinitiator, an organic solvent and optionally an additive to obtain a photocured single hard coating layer including inorganic particles dispersed in a copolymer, wherein the copolymer is a copolymer in which 5 to 20 weight parts of the elastic polymer is crosslinked with 80 to 95 weight parts of the tri- to hexa-functional acrylate monomer based on 100 weight parts thereof b) laminating a substrate on one or both sides of the photocured hard coating layer, wherein the laminated hard coating film does not crack when a 22g steel ball is freely dropped 10 times thereon from a height of 50 cm, and wherein the laminated hard coating film exhibits a pencil hardness of 7H or more at a load of 1 kg, wherein the pencil hardness is evaluated according to JIS K5400 by doubly rubbing the laminated hard coating film three times with a pencil hardness meter under a load of 1 kg. wherein the laminated hard coating film does not crack when a 22g steel ball is freely dropped 10 times thereon from a height of 50 cm, and wherein the laminated hard coating film exhibits a pencil hardness of 7H or more at a load of 1 kg, wherein the pencil hardness is evaluated according to JIS K5400 by doubly rubbing the laminated hard coating film three times with a pencil hardness meter under a load of 1 kg.
A liquid composition for ink-jet printing, comprising not less than 0.01% by mass and not more than 1.5% by mass of a compound represented by the following formula or a salt thereof, not less than 0.05% by mass and not more than 35% by mass of a compound represented by the following formula , and water: R 1 -O-(AO) j (CH 2 CH 2 O) n -B-COOH , wherein R 1 is a linear or branched aliphatic hydrocarbon group having not less than 2 and not more than 8 carbon atoms, or an alicyclic hydrocarbon group having not less than 3 and not more than 8 carbon atoms; AO is an alkyleneoxy group having 3 or 4 carbon atoms; B is an alkylene group having not less than 1 and not more than 3 carbon atoms; and j and n represent average molar numbers of addition of (AO) and (CH 2 CH 2 O), respectively, in which j is a number of not less than 0 and not more than 1, n is a number of not less than 5 and not more than 20, and when j is more than 0 (j > 0), the groups of (AO) and (CH 2 CH 2 O) may be arranged in any order; and R 2 -O-(AO) k (CH 2 CH 2 O) m - H , wherein R 2 is a linear or branched aliphatic hydrocarbon group having not less than 2 and not more than 8 carbon atoms, or an alicyclic hydrocarbon group having not less than 3 and not more than 8 carbon atoms; AO is an alkyleneoxy group having 3 or 4 carbon atoms; and k and m represent average molar numbers of addition of (AO) and (CH 2 CH 2 O), respectively, in which k is a number of not less than 0 and not more than 1, m is a number of not less than 6 and not more than 21, and when k is more than 0 (k > 0), the groups of (AO) and (CH 2 CH 2 O) may be arranged in any order.
Agricultural device, in particular soil cultivation device for soil cultivation and/or for dispensing seed, which has a frame with a drawbar and a chassis having height-adjustable wheels , and soil cultivation tools that are arranged on the frame and are combined in tool units having soil cultivation tools that are able to be folded in with respect to one another and loosen soil and/or level soil, and ground rollers that are arranged behind said soil cultivation tools on the frame and are combined in roller units that are able to be folded in with respect to one another, wherein the wheels of the chassis are arranged behind the soil cultivation tools that loosen the soil and/or level the soil and in front of the ground rollers that follow the wheels , characterized in that the soil cultivation tool units arranged in front of the wheels of the chassis are subdivided into three units that are foldable with respect to one another and the roller units are subdivided into four units that are foldable with respect to one another, in that the two central roller units that are able to be folded in with respect to one another and are arranged behind the wheels are arranged in a pivotable manner by means of pivot joints on the frame in the central region of the device and the lateral roller units are each arranged on the tool units arranged in front thereof by means of connecting elements.