mhurhangee/patent-ind-claim-en huggingface dataset:
Zeolitic adsorbent material comprising an organic binder, comprising: a) a polymer matrix, and b) at least one zeolite of type 3A, and in which: - the zeolite crystals are homogeneously distributed in the said matrix, and - the amount of zeolite crystals is greater than 70%, with respect to the total weight of the said adsorbent material, and less than 99%, preferably less than 95%, more preferably less than 90% and entirely preferably less than or equal to 85% by weight, with respect to the total weight of the said adsorbent material, and - the zeolite included in the zeolitic adsorbent material is a natural, synthetic or artificial zeolite, the mean particle size of which is less than 20 μm, preferably less than 15 μm, and is greater than 0.05 μm, preferably greater than 0.1 μm, and - the polymer matrix comprises an ethylene/butyl acrylate copolymer, and - the said zeolitic adsorbent material exhibits just one type of porosity which is a microporosity. a) a polymer matrix, and b) at least one zeolite of type 3A, and in which: - the zeolite crystals are homogeneously distributed in the said matrix, and - the amount of zeolite crystals is greater than 70%, with respect to the total weight of the said adsorbent material, and less than 99%, preferably less than 95%, more preferably less than 90% and entirely preferably less than or equal to 85% by weight, with respect to the total weight of the said adsorbent material, and - the zeolite included in the zeolitic adsorbent material is a natural, synthetic or artificial zeolite, the mean particle size of which is less than 20 μm, preferably less than 15 μm, and is greater than 0.05 μm, preferably greater than 0.1 μm, and - the polymer matrix comprises an ethylene/butyl acrylate copolymer, and - the said zeolitic adsorbent material exhibits just one type of porosity which is a microporosity. - the zeolite crystals are homogeneously distributed in the said matrix, and - the amount of zeolite crystals is greater than 70%, with respect to the total weight of the said adsorbent material, and less than 99%, preferably less than 95%, more preferably less than 90% and entirely preferably less than or equal to 85% by weight, with respect to the total weight of the said adsorbent material, and - the zeolite included in the zeolitic adsorbent material is a natural, synthetic or artificial zeolite, the mean particle size of which is less than 20 μm, preferably less than 15 μm, and is greater than 0.05 μm, preferably greater than 0.1 μm, and - the polymer matrix comprises an ethylene/butyl acrylate copolymer, and - the said zeolitic adsorbent material exhibits just one type of porosity which is a microporosity.
A display device comprising: a substrate including a through-hole , a peripheral area (RA) surrounding the through-hole , a wiring area (LA) surrounding the peripheral area (RA), and a display area (DA) surrounding the wiring area (LA); a gate insulating layer disposed on the substrate ; a gate wire (GL) disposed in the wiring area (LA) and on the gate insulating layer ; an interlayer insulating layer disposed on the gate wire (GL); a data wire (DL) disposed in the wiring area (LA) and on the interlayer insulating layer ; a middle insulating layer disposed on the data wire (DL), a first main insulating dam disposed in the wiring area (LA) and on the middle insulating layer , an emission layer disposed on the substrate ; and a cathode disposed on the emission layer , wherein the first main insulating dam includes an organic material, characterized in that a width of a lower surface of the first main insulating dam is narrower than a width of an upper surface of the first main insulating dam , the emission layer and the cathode are disposed in the peripheral area (RA) and the wiring area (LA), and the first main insulating dam disconnects the cathode and the emission layer . a substrate including a through-hole , a peripheral area (RA) surrounding the through-hole , a wiring area (LA) surrounding the peripheral area (RA), and a display area (DA) surrounding the wiring area (LA); a gate insulating layer disposed on the substrate ; a gate wire (GL) disposed in the wiring area (LA) and on the gate insulating layer ; an interlayer insulating layer disposed on the gate wire (GL); a data wire (DL) disposed in the wiring area (LA) and on the interlayer insulating layer ; a middle insulating layer disposed on the data wire (DL), a first main insulating dam disposed in the wiring area (LA) and on the middle insulating layer , an emission layer disposed on the substrate ; and a cathode disposed on the emission layer , wherein the first main insulating dam includes an organic material, characterized in that a width of a lower surface of the first main insulating dam is narrower than a width of an upper surface of the first main insulating dam , the emission layer and the cathode are disposed in the peripheral area (RA) and the wiring area (LA), and the first main insulating dam disconnects the cathode and the emission layer .
Electromechanical brake device for a motor vehicle, comprising an adjusting device and a brake part which is connected thereto, which can be adjusted along an axis (A) by the adjusting device and can be brought into braking engagement with a counter-brake part , the adjusting device having a first adjusting drive and a second adjusting drive coupled serially thereto, the first adjusting drive having a first drive wheel which can be driven in rotation, and the second adjusting drive having a second drive wheel which can be driven in rotation and is coaxial with the first drive wheel, a friction clutch being arranged between the first drive wheel and the second drive wheel , which friction clutch comprises two friction elements with coaxial friction surfaces which can be connected to one another in a frictionally engaging manner in order to produce a clutch engagement, wherein at least one friction element is formed in one piece with the first drive wheel or the second drive wheel , characterized in in that the friction elements are prestressed against one another. the adjusting device having a first adjusting drive and a second adjusting drive coupled serially thereto, the first adjusting drive having a first drive wheel which can be driven in rotation, and the second adjusting drive having a second drive wheel which can be driven in rotation and is coaxial with the first drive wheel, a friction clutch being arranged between the first drive wheel and the second drive wheel , which friction clutch comprises two friction elements with coaxial friction surfaces which can be connected to one another in a frictionally engaging manner in order to produce a clutch engagement, wherein at least one friction element is formed in one piece with the first drive wheel or the second drive wheel , characterized in in that the friction elements are prestressed against one another.
Transmission for a motor vehicle, having a housing which at least partially encloses at least one movable transmission part and which in a normal operating mode of the transmission is filled with an operating medium , and having a heating element which is configured for outputting a heat output for heating the operating medium , wherein the heating element is configured for outputting the heat output to the housing by means of a first coupling surface and the housing is configured for outputting the heat output to the operating medium by means of a second coupling surface and thus the heat output can be transferred from the heating element to the operating medium predominantly or completely indirectly by means of the housing , characterised in that the housing is produced with one housing part made of a first material and has a thermal conducting element for distributing and/or conducting the heat output, wherein the thermal conducting element is formed from a second material which has a greater coefficient of thermal conductivity than the first material.
A system for performing a percutaneous navigation procedure, the system comprising: a trackable needle assembly including a first tracking sensor disposed thereon and defining a lumen therethrough; a camera attached to the trackable needle assembly, the camera configured to capture video or images; a surgical instrument including a second tracking sensor disposed thereon, the surgical instrument configured to be inserted through the lumen of the trackable needle assembly ; an ultrasound sensor including a tracking element disposed thereon; and a computing device configured to: track a location of each of the ultrasound sensor , the trackable needle assembly , and the surgical instrument ; and display the location of each of the ultrasound sensor, the trackable needle assembly, and the surgical instrument in relation to one another. a trackable needle assembly including a first tracking sensor disposed thereon and defining a lumen therethrough; a camera attached to the trackable needle assembly, the camera configured to capture video or images; a surgical instrument including a second tracking sensor disposed thereon, the surgical instrument configured to be inserted through the lumen of the trackable needle assembly ; an ultrasound sensor including a tracking element disposed thereon; and a computing device configured to: track a location of each of the ultrasound sensor , the trackable needle assembly , and the surgical instrument ; and display the location of each of the ultrasound sensor, the trackable needle assembly, and the surgical instrument in relation to one another. track a location of each of the ultrasound sensor , the trackable needle assembly , and the surgical instrument ; and display the location of each of the ultrasound sensor, the trackable needle assembly, and the surgical instrument in relation to one another.
Integrated circuit , comprising: - a silicon substrate ; - an earth plane of doped silicon disposed above the substrate; - a buried insulator layer disposed above the earth plane; - a silicon layer disposed above the buried insulator layer and separated from the earth plane by way of the buried insulator layer; - an FDSOI transistor whose channel is adapted for being formed in the silicon layer, whose source and drain are disposed in and/or on the silicon layer , and whose gate covers the upper face of the channel and comprises at least one lateral portion covering a lateral face of the channel and disposed above the earth plane, the distance between the said lateral portion and the earth plane being less than or equal to 3 nm and at least 5 times less than the thickness of the buried insulator layer between the earth plane and the silicon layer, the earth plane being separated from the gate by the buried insulator layer , and in which the ratio of the width of the channel to the thickness of the channel lies between 0.75 and 2.5. - a silicon substrate ; - an earth plane of doped silicon disposed above the substrate; - a buried insulator layer disposed above the earth plane; - a silicon layer disposed above the buried insulator layer and separated from the earth plane by way of the buried insulator layer; - an FDSOI transistor whose channel is adapted for being formed in the silicon layer, whose source and drain are disposed in and/or on the silicon layer , and whose gate covers the upper face of the channel and comprises at least one lateral portion covering a lateral face of the channel and disposed above the earth plane, the distance between the said lateral portion and the earth plane being less than or equal to 3 nm and at least 5 times less than the thickness of the buried insulator layer between the earth plane and the silicon layer, the earth plane being separated from the gate by the buried insulator layer , and in which the ratio of the width of the channel to the thickness of the channel lies between 0.75 and 2.5.
Multi-phase busbar for conducting electric energy comprising an insulating base layer made of an insulating material, a first conducting layer made of a sheet metal which is arranged on and adhesively bonded to said base layer , a first connecting pin mounted to said first conducting layer which extends in a direction preferably perpendicular to the first conducting layer , a first insulating layer (6, 6.1) arranged on and adhesively bonded to said first conducting layer , a second conducting layer made of a sheet metal which is arranged on and adhesively bonded to said first insulating layer (6, 6.2), said second conducting layer comprising a second connecting pin which extends in a direction parallel to said first connecting pin , a second insulating layer (6, 6.1) arranged on and adhesively bonded to said second conducting layer , wherein said second conducting layer and said first and second insulating layer (6, 6.1, 6.2) each comprises at least one pinhole through which said first connecting pin projects, wherein said first connecting pin is covered by a sleeve (10, 10a to 10d) or cover of an insulating material which is arranged thereon and which projects from said first conducting layer through said pinholes formed in said second conducting layer and said insulating layers (6, 6.1, 6.2) characterized in that at least one of said insulating layers includes a first insulating sub layer (6.1) which is arranged on an upper side of a conducting layer and a second insulating sub layer (6.2) which is arranged on a lower side of a conducting layer , said first insulating sub layer (6.1) comprising a first pinhole (14.1) having a diameter which is larger than said pinhole in said second conducting layer , and that said sleeve comprises a first collar (16.1) of insulating material which is received in said first pinhole (14.1) of said first insulating sub layer (6.1).
Launching unit for a munition, in particular for a signal rocket, comprising at least one tension sleeve , one striking element seated in an axially movable manner within the tension sleeve , one tensioning element for tensioning the striking element , one traction member connected to the striking element , characterized in that the traction member is designed to be telescopic.
A single- or multiple-component composition for producing a hydrogel comprising constituents: a) a radical polymerizable monomer or prepolymer system, b) a free-radical initiator, c) optionally a catalyst for said initiator, wherein the radical polymerizable monomer or prepolymer system comprises: a1) at least one at room temperature liquid water-soluble (meth)acrylic compound supported on at least one solid carrier and/or a2) at least one at room temperature solid or liquid water-soluble (meth)acrylic compound dissolved in a liquid solution, preferably in an aqueous solution, which liquid solution is supported on at least one solid carrier, and wherein the at least one solid carrier is selected from the group consisting of particles of perlite, expanded perlite, glass, phonolite, calcium silicates, fumed silica, precipitated silica, silica gel, foamed polyurethane, polysaccharides, expanded vermiculite, clay minerals, fumed metal oxides, zeolites, kieselguhr, and mixtures thereof. a) a radical polymerizable monomer or prepolymer system, b) a free-radical initiator, c) optionally a catalyst for said initiator, a1) at least one at room temperature liquid water-soluble (meth)acrylic compound supported on at least one solid carrier and/or a2) at least one at room temperature solid or liquid water-soluble (meth)acrylic compound dissolved in a liquid solution, preferably in an aqueous solution, which liquid solution is supported on at least one solid carrier, and wherein
Chip card with a dual, contact and contactless, communication interface, comprising a card body comprising two metal sheets and an electronic module provided with a contact terminal block and with an antenna intended for radiofrequency communication with the antenna of a remote reader, characterized in that the electronic module comprises an active communication circuit supplied with power by a battery located in the chip card and configured to generate a carrier signal capable of interacting with the carrier signal emitted by a remote contactless reader so as to establish active radiofrequency communication between the chip card and said remote reader.
A lip for an excavating bucket comprising a mounting portion for mounting ground engaging tools and a supporting portion rearward of the mounting portion , the supporting portion including one or more recesses , characterized in that the one or more recesses are collectively at least about 15 percent of the total volume of the lip including the total collective volume of the recesses and the lip including, to each side of the one or more recesses , a front beam and a rear beam which has a reduced depth compared to the front beam .
FBG strain sensor arrangement with a sensor carrier of steel sheet, and at least one FBG strain sensor fastened thereto, wherein - the FBG strain sensor has an optical fibre with two end portions, between which at least one Bragg grating is provided, and an optical signal line is coupled at each of the end portions for transmission of the measurement signal, and - a protective cover is provided, which comprises the following features: -- along the optical fibre, the protective cover is configured thin and narrow and bonded to the sensor carrier , so that the optical fibre lying underneath with the Bragg grating is fixed on the sensor carrier , -- at each of both end portions of the optical fibre, i.e. at the respective coupling point with the signal line , the protective cover is configured enlarged so that a cavity is formed underneath, and -- the edges of the enlarged protective cover are bonded to the sensor carrier as well, wherein - an elastic filler body is arranged in the cavity and embeds the coupling point in a vibration damping manner. - the FBG strain sensor has an optical fibre with two end portions, between which at least one Bragg grating is provided, and an optical signal line is coupled at each of the end portions for transmission of the measurement signal, and - a protective cover is provided, which comprises the following features: -- along the optical fibre, the protective cover is configured thin and narrow and bonded to the sensor carrier , so that the optical fibre lying underneath with the Bragg grating is fixed on the sensor carrier , -- at each of both end portions of the optical fibre, i.e. at the respective coupling point with the signal line , the protective cover is configured enlarged so that a cavity is formed underneath, and -- the edges of the enlarged protective cover are bonded to the sensor carrier as well, wherein -- along the optical fibre, the protective cover is configured thin and narrow and bonded to the sensor carrier , so that the optical fibre lying underneath with the Bragg grating is fixed on the sensor carrier , -- at each of both end portions of the optical fibre, i.e. at the respective coupling point with the signal line , the protective cover is configured enlarged so that a cavity is formed underneath, and -- the edges of the enlarged protective cover are bonded to the sensor carrier as well, wherein - an elastic filler body is arranged in the cavity and embeds the coupling point in a vibration damping manner.
A method for manufacturing a housing of an ultrasonic probe, the method comprising additively forming first portions of the housing using a first material with first acoustic properties and additively forming second portions of the housing using a mixture of the first and a second material with second acoustic properties, the first and second materials being different and configured to modify ultrasonic signals of the ultrasonic probe so that different portions of the housing have different acoustic properties as the volume percentages of the first and second material is changed, the method further comprising additively forming a fluid channel for receiving fluid within the housing .
Electrical component for a high-voltage system, containing in a coaxial arrangement: a current conductor , which extends along an axis (A) and can be raised to high-voltage potential, a rigid insulating body , which is secured to the current conductor and surrounds the current conductor, containing a solid polymer composition , which is formed by curing a preformed, flowable polymer composition, a mounting flange , which is secured externally on the insulating body and can be raised to ground potential, and a cap-shaped control electrode , which is connected to the current conductor in an electrically conductive manner and secured to one end of the current conductor , and, during the operation of the system, controls the electric field between the current conductor and the mounting flange , characterized in that the control electrode is connected to the current conductor in a non-detachable manner and has a dimensionally stable cap made of the rigid polymer composition , which is produced during the preforming and curing of the flowable polymer composition, in that a coating made of a cured, electrically conductive lacquer is applied at least to the surface of the cap facing towards the outside; and in that the insulating body and the control electrode are produced by jointly preforming and curing the flowable polymer composition. a current conductor , which extends along an axis (A) and can be raised to high-voltage potential, a rigid insulating body , which is secured to the current conductor and surrounds the current conductor, containing a solid polymer composition , which is formed by curing a preformed, flowable polymer composition, a mounting flange , which is secured externally on the insulating body and can be raised to ground potential, and a cap-shaped control electrode , which is connected to the current conductor in an electrically conductive manner and secured to one end of the current conductor , and, during the operation of the system, controls the electric field between the current conductor and the mounting flange , characterized in that the control electrode is connected to the current conductor in a non-detachable manner and has a dimensionally stable cap made of the rigid polymer composition , which is produced during the preforming and curing of the flowable polymer composition, in that a coating made of a cured, electrically conductive lacquer is applied at least to the surface of the cap facing towards the outside; and in that the insulating body and the control electrode are produced by jointly preforming and curing the flowable polymer composition.