mhurhangee/ep-ind-claims huggingface dataset:
A safety gear for cycling, comprising: a brake signal component; a brake signal component circuit, wherein said brake signal component circuit is connected to the brake signal component and comprises a brake signal switch, and wherein the brake signal switch senses a head pitch movement of a cyclist to control on and off of the brake signal component. a brake signal component; a brake signal component circuit, wherein said brake signal component circuit is connected to the brake signal component and comprises a brake signal switch, and wherein the brake signal switch senses a head pitch movement of a cyclist to control on and off of the brake signal component.
Method for preparing a trichlorogermanide of the general formula I [R 4 N]/[R 4 P]Cl[GeCl 3], where R = Me, Et, i Pr, n Bu, Ph, by dissolving GeCl 4 with hexachlorodisilane in a solvent and reacting in the presence of a stoichiometric amount of [R 4 N]/[R 4 P]Cl at a temperature of 5 to 40°C.
An oncolytic virus comprising a recombinant binding domain specific for a tumor stem cell marker, wherein the tumor stem cell marker is CD133, wherein the virus has a decreased specificity for its original receptor(s) used for cell entry, wherein the recombinant binding domain comprises a single-chain variable fragment (scFv), and wherein the virus is from the Paramyxoviridae family, genus Morbillivirus.
Tyre, the tread of which comprises a rubber composition comprising at least: - from 50 to 100 phr of a copolymer based on styrene and butadiene showing a glass transition temperature comprised between -80°C and 0°C; - optionally from 0 to 50 phr of another diene elastomer; - from 100 to 150 phr of a reinforcing inorganic filler; - a plasticizing system comprising: - according to a content A of between 10 and 60 phr, a thermoplastic hydrocarbon resin exhibiting a Tg of greater than 20°C; - according to a content B of between 10 and 60 phr, a liquid plasticizing agent; - it being understood that the total content A+B is greater than 50 phr. - from 50 to 100 phr of a copolymer based on styrene and butadiene showing a glass transition temperature comprised between -80°C and 0°C; - optionally from 0 to 50 phr of another diene elastomer; - from 100 to 150 phr of a reinforcing inorganic filler; - a plasticizing system comprising: - according to a content A of between 10 and 60 phr, a thermoplastic hydrocarbon resin exhibiting a Tg of greater than 20°C; - according to a content B of between 10 and 60 phr, a liquid plasticizing agent; - it being understood that the total content A+B is greater than 50 phr. - according to a content A of between 10 and 60 phr, a thermoplastic hydrocarbon resin exhibiting a Tg of greater than 20°C; - according to a content B of between 10 and 60 phr, a liquid plasticizing agent; - it being understood that the total content A+B is greater than 50 phr.
A submerged arc welding method for butt welding a steel plate said steel plate having a thickness t(mm) within a range of 20 mm to 40 mm, with submerged arc welding by welding a top side of the steel plate after welding a bottom side thereof, wherein θ1 ≥ 15 (Expression), where θ1 (°) is an angle between a top side borderline and a line perpendicular to a first parallel line, the top side borderline connecting a junction and a first intersection point, the junction being an intersection between a melting borderline of bottom side weld metal and a melting borderline of top side weld metal, the first intersection point being an intersection between the first parallel line and the melting borderline of the top side weld metal, the first parallel line traversing a position 5 mm from the junction in a direction of an upper surface of the steel plate and being parallel to the upper surface, θ2 ≥ 15 (Expression), where θ2 (°) is an angle between a bottom side borderline and a line perpendicular to a second parallel line, the bottom side borderline connecting the junction and a second intersection point, the second intersection point being an intersection between the second parallel line and the melting borderline of the bottom side weld metal, the second parallel line traversing a position 5 mm from the junction in a direction of a lower surface of the steel plate and being parallel to the lower surface, and Q ≤ 1.3 × t 1.37 (Expression), where Q (kJ/cm) is a total heat input of a bottom side welding heat input and a top side welding heat input of the steel plate, t (mm) is a wall thickness of the steel plate, and t (mm) is within a range of 20 mm to 40 mm.
A method comprising: transmitting and receiving a test signal for calibration between a plurality of electrodes of a device, the plurality of electrodes being coupled to the body of a user; obtaining impedance of the body of the user based on the test signal; determining calibration information based on the impedance of the body of the user, and storing the determined calibration information in a profile for the user; receiving, by at least one of the plurality of electrodes coupled to the body of the user, an electromagnetic interference, EMI, signal through the body of the user, the EMI signal being emitted by an object that is external to the device; comparing, by one or more processors, the received EMI signal to stored data, wherein the stored data includes the profile for the user and a data store associating EMI signals with a particular noise, environmental factor or location; and determining, by the one or more processors, a context surrounding the device based on the result of the comparison. transmitting and receiving a test signal for calibration between a plurality of electrodes of a device, the plurality of electrodes being coupled to the body of a user; obtaining impedance of the body of the user based on the test signal; determining calibration information based on the impedance of the body of the user, and storing the determined calibration information in a profile for the user; receiving, by at least one of the plurality of electrodes coupled to the body of the user, an electromagnetic interference, EMI, signal through the body of the user, the EMI signal being emitted by an object that is external to the device; comparing, by one or more processors, the received EMI signal to stored data, wherein the stored data includes the profile for the user and a data store associating EMI signals with a particular noise, environmental factor or location; and determining, by the one or more processors, a context surrounding the device based on the result of the comparison.
A catheter system comprising: a plurality of mapping electrodes configured to detect activation signals of intrinsic cardiac activity, each of the plurality of mapping electrodes having an electrode location; a mapping processor associated with the plurality of mapping electrodes, the mapping processor configured to record the detected activation signals and associate one of the plurality of mapping electrodes with each recorded activation signal, the mapping processor further configured to generate a vector field map which represents a direction of propagation of the activation signals at each electrode location, and identify a signature pattern and a location in the vector field map according to at least one vector field template; and wherein to identify the signature pattern the processing system is characterized by further being configured to access a template bank which includes a plurality of vector field templates, each vector field template having a unique signature pattern, compare the vector field map with each vector field template of the template bank, and identify the signature pattern most closely matching the generated vector field map according to a similarity index. a mapping processor associated with the plurality of mapping electrodes, the mapping processor configured to record the detected activation signals and associate one of the plurality of mapping electrodes with each recorded activation signal, the mapping processor further configured to generate a vector field map which represents a direction of propagation of the activation signals at each electrode location, and identify a signature pattern and a location in the vector field map according to at least one vector field template; and wherein to identify the signature pattern the processing system is characterized by further being configured to access a template bank which includes a plurality of vector field templates, each vector field template having a unique signature pattern, compare the vector field map with each vector field template of the template bank, and identify the signature pattern most closely matching the generated vector field map according to a similarity index.
A binocular telescope with a digital laser ranging function, comprising two cylinders, each cylinder comprising an objective component, a beam splitter and coincidence prism system and an ocular component, and the beam splitter and coincidence prism system being arranged between the objective component and the ocular component; characterized in that: in one of the cylinders the beam splitter and coincidence prism system comprises a roof prism and a composite prism, the composite prism is composed of an isosceles prism, a right-angle prism A and a right-angle prism B, wherein the right-angle prism A and the right-angle prism B have the same shape and symmetrically abut on two isosceles planes of the isosceles prism; in the other of the cylinders the beam splitter and coincidence prism system comprises a roof prism and a composite prism, the composite prism composed of a right-angle prism A and a right-angle prism; wherein a right-angle plane of the right-angle prism is longer than the slope of the right-angle prism A, and the right-angle plane abuts on the slope of the right-angle prism A, and a detector B is arranged in parallel on the reflection and transmission plane of the right-angle prism; and in the cylinder comprising the composite prism composed with the isosceles prism a respective light path is provided with an emission device (7A1) at a position opposite to the detector B so that the laser can be emitted from the respective objective component as a collimated beam. in one of the cylinders the beam splitter and coincidence prism system comprises a roof prism and a composite prism, the composite prism is composed of an isosceles prism, a right-angle prism A and a right-angle prism B, wherein the right-angle prism A and the right-angle prism B have the same shape and symmetrically abut on two isosceles planes of the isosceles prism; in the other of the cylinders the beam splitter and coincidence prism system comprises a roof prism and a composite prism, the composite prism composed of a right-angle prism A and a right-angle prism; wherein a right-angle plane of the right-angle prism is longer than the slope of the right-angle prism A, and the right-angle plane abuts on the slope of the right-angle prism A, and a detector B is arranged in parallel on the reflection and transmission plane of the right-angle prism; and in the cylinder comprising the composite prism composed with the isosceles prism a respective light path is provided with an emission device (7A1) at a position opposite to the detector B so that the laser can be emitted from the respective objective component as a collimated beam.
A thermosettable structural adhesive composition comprising (a) an epoxy compound; (b) a thermoplastic compound; (c) an epoxy curing agent; (d) non-spherical particles, wherein said thermosettable structural adhesive composition provides a cohesive failure mode in a T-peel test according to ASTM D1876; and wherein the non-spherical particles have a grain size according to EN ISO 8130-13:2010 in the range of from 30 μm to 200 μm. (a) an epoxy compound; (b) a thermoplastic compound; (c) an epoxy curing agent; (d) non-spherical particles, wherein said thermosettable structural adhesive composition provides a cohesive failure mode in a T-peel test according to ASTM D1876; and wherein the non-spherical particles have a grain size according to EN ISO 8130-13:2010 in the range of from 30 μm to 200 μm.
A method for identifying a user input in a user input device, the method including: detecting edges in an output signal generated by a switch in the user input device; identifying a first-to-second-state edge as being indicative of a transition from a first state to a second state; counting down to a first rest period upon identifying the first-to-second-state edge; before completion of the counting down to the first rest period, restarting the counting down upon each detection of a further edge in the output signal; detecting a second-to-first-state edge in the output signal that occurs after completion of the counting down to the first rest period; identifying the second-to-first-state edge as being indicative of a transition from the second state to the first state; identifying edges in the output signal between the first-to-second-state edge and the second-to-first-state edge, that occur less than the first rest period after an immediately preceding edge in the output signal, as bounce signals; characterized in that the method further includes: recording intervals between successive identified bounce signals; and adjusting the first rest period based on a longest interval of the recorded intervals. detecting edges in an output signal generated by a switch in the user input device; identifying a first-to-second-state edge as being indicative of a transition from a first state to a second state; counting down to a first rest period upon identifying the first-to-second-state edge; before completion of the counting down to the first rest period, restarting the counting down upon each detection of a further edge in the output signal; detecting a second-to-first-state edge in the output signal that occurs after completion of the counting down to the first rest period; identifying the second-to-first-state edge as being indicative of a transition from the second state to the first state; identifying edges in the output signal between the first-to-second-state edge and the second-to-first-state edge, that occur less than the first rest period after an immediately preceding edge in the output signal, as bounce signals; characterized in that the method further includes: recording intervals between successive identified bounce signals; and adjusting the first rest period based on a longest interval of the recorded intervals. recording intervals between successive identified bounce signals; and adjusting the first rest period based on a longest interval of the recorded intervals.
A memory cell comprising: a first transistor and a second transistor vertically displaced relative to one another; and a capacitor disposed to be vertically between the first transistor and the second transistor, the capacitor having a first node electrically coupled with a first source/drain region of the first transistor, having a second node electrically coupled with a third source/drain region of the second transistor, and having capacitor dielectric material between the first and second nodes (40, 42); characterised by one of the first node and the second node being container-shaped and the other of the first node and the second node extending into the container shape; and wherein; the first transistor has the first source/drain region and a second source/drain region, the first node of the capacitor being electrically coupled with the first source/drain region; the second transistor has the third source/drain region and a fourth source/drain region, the second node of the capacitor being electrically coupled with the third source/drain region; and the second and fourth source/drain regions (30, 36) being electrically coupled with a first and a second comparative bitline (BL-1, BL-2) respectively. a first transistor and a second transistor vertically displaced relative to one another; and a capacitor disposed to be vertically between the first transistor and the second transistor, the capacitor having a first node electrically coupled with a first source/drain region of the first transistor, having a second node electrically coupled with a third source/drain region of the second transistor, and having capacitor dielectric material between the first and second nodes (40, 42); characterised by one of the first node and the second node being container-shaped and the other of the first node and the second node extending into the container shape; and wherein; the first transistor has the first source/drain region and a second source/drain region, the first node of the capacitor being electrically coupled with the first source/drain region; the second transistor has the third source/drain region and a fourth source/drain region, the second node of the capacitor being electrically coupled with the third source/drain region; and the second and fourth source/drain regions (30, 36) being electrically coupled with a first and a second comparative bitline (BL-1, BL-2) respectively.
A composition comprising: hydrogen fluoride in an amount from 80 weight percent of the composition to 98 weight percent of the composition; and a cross-linked copolymer in an amount from 2 weight percent of the composition to 20 weight percent of the composition, the cross-linked copolymer comprising acrylamide units and acrylate units, wherein the composition is in the form of a solid or a gel. hydrogen fluoride in an amount from 80 weight percent of the composition to 98 weight percent of the composition; and a cross-linked copolymer in an amount from 2 weight percent of the composition to 20 weight percent of the composition, the cross-linked copolymer comprising acrylamide units and acrylate units, wherein the composition is in the form of a solid or a gel.
An aqueous coating composition for metal surface pre-treatment having a pH in the range of from 3 to 6, comprising: (i) at least one organosilane having a molecular weight of less than 400 g/mol with at least one hydrolyzable substituent and at least one non-hydrolyzable substituent selected from amino-functional, vinyl-functional, epoxy-functional and hydroxyl-functional groups, which are covalently bound to the silicon atom of the organosilane through at least one carbon atom; (ii) at least one silane according to the following general structure R' is selected from C1 to C6 alkyl groups; (iii) at least one water soluble and/or water dispersible silane-functional oligomer having a weight-average molecular weight as determined by GPC of at least 400 g/mol and less than 10,000 g/mol that includes a polyurethane and/or polyacrylate and/or polyester and/or polyether backbone and comprises terminal silyl groups, wherein water dispersible is defined as a physical status of the solute being evenly distributed in the water phase in the form of small particles with an average particle diameter of less than 10 μm as measured according to the description; (iv) at least one water-soluble compound of the elements Zr and/or Ti, wherein the molar ratio of element Si to the sum of the elements Zr and/or Ti is from 10 to 500. (i) at least one organosilane having a molecular weight of less than 400 g/mol with at least one hydrolyzable substituent and at least one non-hydrolyzable substituent selected from amino-functional, vinyl-functional, epoxy-functional and hydroxyl-functional groups, which are covalently bound to the silicon atom of the organosilane through at least one carbon atom; (ii) at least one silane according to the following general structure R' is selected from C1 to C6 alkyl groups; (iii) at least one water soluble and/or water dispersible silane-functional oligomer having a weight-average molecular weight as determined by GPC of at least 400 g/mol and less than 10,000 g/mol that includes a polyurethane and/or polyacrylate and/or polyester and/or polyether backbone and comprises terminal silyl groups, wherein water dispersible is defined as a physical status of the solute being evenly distributed in the water phase in the form of small particles with an average particle diameter of less than 10 μm as measured according to the description; (iv) at least one water-soluble compound of the elements Zr and/or Ti, wherein the molar ratio of element Si to the sum of the elements Zr and/or Ti is from 10 to 500.
A plug-in joining member for connecting ends of window profiles, formed as an elongated piece with an U-shaped cross-section, having a bottom wall and side walls adjacent to the said bottom wall down its side edges, where the joining member has friction claws provided on side walls on both sides of the central line and turned towards the said central line of the joining member, and having at least one central stop, characterized in that cam radiuses ( R 1, R 2, R 3 and R 4) of working portions for each subsequent friction claw on each specific side wall gradually increase down the both directions from far ends of the joining member towards its central line, whilst tips of working portions on friction claws after having the said friction claws bent out to their working positions are arranged at the same elevation above the bottom wall.
Apparatus for the fitting and dismantling of aircraft landing gear, with - an actuating device, and - a receiving frame which comprises adjustable receiving elements for receiving different aircraft landing gear, the actuating device comprising an actuating arm which is attached adjustably on a substructure and is configured to couple by means of a coupling adapter to the receiving frame and to move the latter by means of rough positioning elements and precision positioning elements into a desired landing gear mounting position, characterized in that the apparatus has a counterweight which is configured such that it can be moved out in the opposite direction to an arm movement of the actuating arm. - an actuating device, and - a receiving frame which comprises adjustable receiving elements for receiving different aircraft landing gear,
A method for bonding a first wafer and a second wafer, comprising: depositing a bond pad on a metal on the first wafer, the first wafer including an integrated circuit, and the second wafer including a MEMS device; and, subsequently, sequentially bonding the first wafer to the second wafer utilizing first and second temperatures; wherein the second wafer is bonded to the bond pad at the first temperature and wherein the bond pad and the metal are subsequently bonded at the second temperature. depositing a bond pad on a metal on the first wafer, the first wafer including an integrated circuit, and the second wafer including a MEMS device; and, subsequently, sequentially bonding the first wafer to the second wafer utilizing first and second temperatures; wherein the second wafer is bonded to the bond pad at the first temperature and wherein the bond pad and the metal are subsequently bonded at the second temperature.