mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing an implantable multielectrode array , comprising the steps of: a) providing a substrate on which a plurality of conductors are arranged, wherein each conductor comprises a section comprising a constriction , and wherein said sections extend parallel to one another in a first direction (D1) b) removing a portion of the substrate such that a first and a separate second substrate part is formed, which substrate parts are separated by a gap , and wherein each section extends in the first direction (D1) from the first substrate part across the gap to the second substrate part , and c) exerting a first force (F1) on the first substrate part and a second force (F2) on the second substrate part and heating said sections , such that a fracture of the respective section is generated at the respective constriction , which fracture separates the respective section into an electrode protruding from the first substrate part and an electrode protruding from the second substrate part . a) providing a substrate on which a plurality of conductors are arranged, wherein each conductor comprises a section comprising a constriction , and wherein said sections extend parallel to one another in a first direction (D1) b) removing a portion of the substrate such that a first and a separate second substrate part is formed, which substrate parts are separated by a gap , and wherein each section extends in the first direction (D1) from the first substrate part across the gap to the second substrate part , and c) exerting a first force (F1) on the first substrate part and a second force (F2) on the second substrate part and heating said sections , such that a fracture of the respective section is generated at the respective constriction , which fracture separates the respective section into an electrode protruding from the first substrate part and an electrode protruding from the second substrate part .
A polymeric pipe formed from: a polyolefin structural polymer; a photoinitiator in an amount of 0.02 to 3% by weight, and a scavenger in an amount of 0.01 to 2% by weight; wherein the photoinitiator is a compound of formula I: wherein: R 1 is selected from -(CH 2 ) m (C=O)[O(CH 2 ) n ] p O(C=O)(CH 2 ) q -, -(C=O)(C 5 - C 24 alkyl), and -(C=O)(C 5 - C 24 alkenyl); R 2 is selected from -H, -OH, -halo, -(C 1 - C 4 )alkyl, -(C 2 - C 4 )alkenyl, and formula II: R 3 is selected from -H, -halo, -OH, -(C 1 - C 4 )alkyl, -(C 2 - C 4 )alkenyl, -O(C 1 - C 4 )alkyl, and -O(C 2 - C 4 )alkenyl; m is 0, 1 or 2; n is 2, 3, 4, 5, 6; p is 2 - 10; and q is 0, 1 or 2, wherein the scavenger is selected from (C 6 - C 30 alkyl)NCO, OCN(C 6 - C 30 alkyl)NCO, cycloalkyl isocyanates, multi-functional isocyanates, oligomeric isocyanates, and polymeric isocyanates, and/or a cycloaliphatic epoxide, and/or cycloalkyl oxetane, and/or nanoparticles, wherein the nanoparticles are defined as materials having one dimension below 200 nm and are selected from nano-clays and aluminium oxide. a polyolefin structural polymer; a photoinitiator in an amount of 0.02 to 3% by weight, and a scavenger in an amount of 0.01 to 2% by weight; wherein the photoinitiator is a compound of formula I: wherein: R 1 is selected from -(CH 2 ) m (C=O)[O(CH 2 ) n ] p O(C=O)(CH 2 ) q -, -(C=O)(C 5 - C 24 alkyl), and -(C=O)(C 5 - C 24 alkenyl); R 2 is selected from -H, -OH, -halo, -(C 1 - C 4 )alkyl, -(C 2 - C 4 )alkenyl, and formula II: R 3 is selected from -H, -halo, -OH, -(C 1 - C 4 )alkyl, -(C 2 - C 4 )alkenyl, -O(C 1 - C 4 )alkyl, and -O(C 2 - C 4 )alkenyl; m is 0, 1 or 2; n is 2, 3, 4, 5, 6; p is 2 - 10; and q is 0, 1 or 2, R 1 is selected from -(CH 2 ) m (C=O)[O(CH 2 ) n ] p O(C=O)(CH 2 ) q -, -(C=O)(C 5 - C 24 alkyl), and -(C=O)(C 5 - C 24 alkenyl); R 2 is selected from -H, -OH, -halo, -(C 1 - C 4 )alkyl, -(C 2 - C 4 )alkenyl, and formula II: R 3 is selected from -H, -halo, -OH, -(C 1 - C 4 )alkyl, -(C 2 - C 4 )alkenyl, -O(C 1 - C 4 )alkyl, and -O(C 2 - C 4 )alkenyl; m is 0, 1 or 2; n is 2, 3, 4, 5, 6; p is 2 - 10; and q is 0, 1 or 2, wherein the scavenger is selected from (C 6 - C 30 alkyl)NCO, OCN(C 6 - C 30 alkyl)NCO, cycloalkyl isocyanates, multi-functional isocyanates, oligomeric isocyanates, and polymeric isocyanates, and/or a cycloaliphatic epoxide, and/or cycloalkyl oxetane, and/or nanoparticles, wherein
A capacitor comprising: a capacitor element having internal electrodes and dielectric layers , the internal electrodes and the dielectric layers being alternately laminated; a first electrode layer (6-1) formed on an edge surface of the capacitor element and connected to an internal electrode (20-1, 20-2) of the internal electrodes ; and a second electrode layer (6-2) formed into a mesh shape or a dot shape on the first electrode layer (6-1); characterized in that : the first electrode layer (6-1) has an exposed surface portion that is an oxidation treatment layer . a capacitor element having internal electrodes and dielectric layers , the internal electrodes and the dielectric layers being alternately laminated; a first electrode layer (6-1) formed on an edge surface of the capacitor element and connected to an internal electrode (20-1, 20-2) of the internal electrodes ; and a second electrode layer (6-2) formed into a mesh shape or a dot shape on the first electrode layer (6-1); characterized in that : the first electrode layer (6-1) has an exposed surface portion that is an oxidation treatment layer .
A heat exchanger comprising: a heat exchanging part including a plurality of flat tubes aligned vertically in a state where the heat exchanger is installed; a first flow divider including a first pipe where a refrigerant enters and exits, a plurality of second pipes providing refrigerant flow paths between the heat exchanging part and the first pipe, and a main body internally including a first space (SP3) that communicates with a first end of the first pipe and with first ends of the second pipes and that causes the refrigerant from one of the first pipe and the second pipes to flow into the other; and a plurality of second flow dividers internally including second spaces (SP1) that provide refrigerant flow paths between the heat exchanging part and the first flow divider, that communicate with first end of the corresponding flat tube and with second end of the corresponding second pipe, and that cause the refrigerant from the corresponding flat tube and the corresponding second pipe to flow into the other, characterized in that the first end of the first pipe is connected to the main body such that the first pipe extends upward from the first space in the state where the heat exchanger is installed, and the first end of the second pipe is connected to the main body such that the second pipe extend downward from the first space in the state where the heat exchanger is installed. a heat exchanging part including a plurality of flat tubes aligned vertically in a state where the heat exchanger is installed; a first flow divider including a first pipe where a refrigerant enters and exits, a plurality of second pipes providing refrigerant flow paths between the heat exchanging part and the first pipe, and a main body internally including a first space (SP3) that communicates with a first end of the first pipe and with first ends of the second pipes and that causes the refrigerant from one of the first pipe and the second pipes to flow into the other; and a plurality of second flow dividers internally including second spaces (SP1) that provide refrigerant flow paths between the heat exchanging part and the first flow divider, that communicate with first end of the corresponding flat tube and with second end of the corresponding second pipe, and that cause the refrigerant from the corresponding flat tube and the corresponding second pipe to flow into the other, characterized in that the first end of the first pipe is connected to the main body such that the first pipe extends upward from the first space in the state where the heat exchanger is installed, and the first end of the second pipe is connected to the main body such that the second pipe extend downward from the first space in the state where the heat exchanger is installed.
A pesticidal composition comprising, as active ingredients, (A) at least one organic phosphorus compound selected from the group consisting of fosthiazate and imicyafos, and (B) fluensulfone.
A method of using a spatial controller to teleoperate a legged vehicle comprising: receiving, from a spatial controller, angular displacement data generated from a movement of the spatial controller with respect to a global reference frame, wherein the movement of the spatial controller is representative of one or more target velocities of a legged vehicle; transforming the angular displacement data into a spatial controller reference frame defined with respect to the spatial controller; identifying, from the angular displacement data, a first subset of the angular displacement data included in a first horizontal plane of the spatial controller reference frame; identifying, from the angular displacement data, a second subset of the angular displacement data that is perpendicular to the first horizontal plane; computing, using the first subset of the angular displacement data, a target linear velocity of the vehicle in a second horizontal plane in a user interface reference frame of a user interface device controlling the vehicle; computing, using the second subset of the angular displacement data, a target angular velocity of the vehicle in the second horizontal plane; transforming the target linear velocity and the target angular velocity into a vehicle reference frame defined with respect to the vehicle; and sending data indicating the target linear velocity and the target angular velocity to the vehicle such that the vehicle moves in accordance with transformed values of the target linear velocity and the target angular velocity. receiving, from a spatial controller, angular displacement data generated from a movement of the spatial controller with respect to a global reference frame, wherein the movement of the spatial controller is representative of one or more target velocities of a legged vehicle; transforming the angular displacement data into a spatial controller reference frame defined with respect to the spatial controller; identifying, from the angular displacement data, a first subset of the angular displacement data included in a first horizontal plane of the spatial controller reference frame; identifying, from the angular displacement data, a second subset of the angular displacement data that is perpendicular to the first horizontal plane; computing, using the first subset of the angular displacement data, a target linear velocity of the vehicle in a second horizontal plane in a user interface reference frame of a user interface device controlling the vehicle; computing, using the second subset of the angular displacement data, a target angular velocity of the vehicle in the second horizontal plane; transforming the target linear velocity and the target angular velocity into a vehicle reference frame defined with respect to the vehicle; and sending data indicating the target linear velocity and the target angular velocity to the vehicle such that the vehicle moves in accordance with transformed values of the target linear velocity and the target angular velocity.
A compound of Formula I: wherein: R 1 is hydrogen, NH 2 , or fluoro; R 2 and R 3 are methyl or hydrogen; or R 2 is methyl, ethyl, 1-hydroxyethyl, 1-methyoxyethyl, fluoromethyl, 1-fluoroethyl, or 1-methylethyl, and R 3 is hydrogen; R 4 is methyl or fluoromethyl; R 5 is hydrogen, ethyl, or -CH 2 -cyclopropyl; or a pharmaceutically acceptable salt thereof. R 1 is hydrogen, NH 2 , or fluoro; R 2 and R 3 are methyl or hydrogen; or R 2 is methyl, ethyl, 1-hydroxyethyl, 1-methyoxyethyl, fluoromethyl, 1-fluoroethyl, or 1-methylethyl, and R 3 is hydrogen; R 4 is methyl or fluoromethyl; R 5 is hydrogen, ethyl, or -CH 2 -cyclopropyl;
A method of storing a medical instrument or component in a moist environment, the method comprising locating the instrument or component within a medical pouch comprising: a web of absorbent material ; a first layer of plastics film arranged on one side of the absorbent material; and a second layer of plastics film arranged on the other side of the absorbent material; wherein the web of absorbent material, the first layer of plastics film and the second layer of plastics film are sealed together so as to form at least one pocket arranged to accommodate instruments located between one of the layers of plastics film and the web of absorbent material, wherein the web of absorbent material forms one interior side of the pocket for accommodating instruments; and wherein an integral flap which may be folded over the entrance of the pouch so as to maintain the instruments in the pouch and to retain moisture within the pouch is provided at an unsealed end of the at least one pocket; the web of absorbent material being permeated with liquid. a web of absorbent material ; a first layer of plastics film arranged on one side of the absorbent material; and a second layer of plastics film arranged on the other side of the absorbent material; wherein the web of absorbent material, the first layer of plastics film and the second layer of plastics film are sealed together so as to form at least one pocket arranged to accommodate instruments located between one of the layers of plastics film and the web of absorbent material, wherein the web of absorbent material forms one interior side of the pocket for accommodating instruments; and wherein an integral flap which may be folded over the entrance of the pouch so as to maintain the instruments in the pouch and to retain moisture within the pouch is provided at an unsealed end of the at least one pocket; the web of absorbent material being permeated with liquid.
Electric scooter with a step , on which a rear wheel is arranged at the rear, which is connected to an electric motor , via which it can be driven, wherein a replaceable battery is arranged, which is electrically connected to the electric motor , wherein the step comprises a circumferential frame, which delimits a battery compartment , which receives the battery , wherein the battery comprises a battery housing , which closes the battery compartment and the upper side of which forms the step surface of the step and wherein the battery housing has locking means, which interact with a locking mechanism arranged on the frame, via which the battery is detachably connected to the frame, characterised in that the locking mechanism comprises at least one spring element, which is tensioned via the locking means when the battery is inserted into the battery compartment in such a manner that a vertical spring force directed against the step surface acts onto the battery housing , by means of which the battery is held in the battery compartment , wherein the at least one spring element is formed by a leaf spring , which has a receptacle at the end, wherein the locking means comprise a driver arranged on the battery housing , which engages in the receptacle and/or in that the locking mechanism comprises at least one holding magnet arranged on the frame, wherein the locking means comprise a holding arm projecting beyond the battery compartment when the battery is in the inserted position therein, which holding arm has a magnetic section, which interacts with the holding magnet in such a manner that a vertical force directed against the step surface is effected on the battery housing , by means of which force the battery is held in the battery compartment . the locking mechanism comprises at least one spring element, which is tensioned via the locking means when the battery is inserted into the battery compartment in such a manner that a vertical spring force directed against the step surface acts onto the battery housing , by means of which the battery is held in the battery compartment , wherein the at least one spring element is formed by a leaf spring , which has a receptacle at the end, wherein the locking means comprise a driver arranged on the battery housing , which engages in the receptacle and/or in that the locking mechanism comprises at least one holding magnet arranged on the frame, wherein the locking means comprise a holding arm projecting beyond the battery compartment when the battery is in the inserted position therein, which holding arm has a magnetic section, which interacts with the holding magnet in such a manner that a vertical force directed against the step surface is effected on the battery housing , by means of which force the battery is held in the battery compartment .
Method comprising the steps: providing a composition containing proteins and amino acids from mucous membranes of slaughtered animals, wherein the mucous membranes of slaughtered animals have been mixed with salts and subjected to enzymatic hydrolysis, inorganic salts and water, wherein the sum of the mass of the proteins and amino acids in the dry mass of this composition is 30 to 70 percent by weight and the mass of the inorganic salts in the dry mass of this composition is at least 7,5 percent by weight, wherein at least a proportion of 50 percent by weight of the inorganic salts consists of the elements sodium and sulphur as well as chloride , wherein the proportion of sodium sulphate in the total amount of inorganic salts is at least 50 percent by weight, filtering the composition while obtaining a filtrate and a filter cake , wherein a filter with a pore size of more than 2 μm is used for filtering the composition , cooling the filtrate to a temperature in the range from -15°C to 15°C while forming a precipitate , separating the resulting precipitate while obtaining the liquid phase as a product, wherein the measuring methods mentioned in the description are used to determine the mass of proteins and amino acids as well as salts. providing a composition containing proteins and amino acids from mucous membranes of slaughtered animals, wherein the mucous membranes of slaughtered animals have been mixed with salts and subjected to enzymatic hydrolysis, inorganic salts and water, wherein the sum of the mass of the proteins and amino acids in the dry mass of this composition is 30 to 70 percent by weight and the mass of the inorganic salts in the dry mass of this composition is at least 7,5 percent by weight, wherein at least a proportion of 50 percent by weight of the inorganic salts consists of the elements sodium and sulphur as well as chloride , wherein the proportion of sodium sulphate in the total amount of inorganic salts is at least 50 percent by weight, filtering the composition while obtaining a filtrate and a filter cake , wherein a filter with a pore size of more than 2 μm is used for filtering the composition , cooling the filtrate to a temperature in the range from -15°C to 15°C while forming a precipitate , separating the resulting precipitate while obtaining the liquid phase as a product, wherein the measuring methods mentioned in the description are used to determine the mass of proteins and amino acids as well as salts.
Oven having at least one household appliance heater (1; 13), wherein - the household appliance heater (1; 13) has at least one electrically conductive heating conductor layer (3; 15) applied to a carrier material of a carrier (2; 16), - the carrier (2; 16) is an oven muffle delimiting a treatment compartment of the household appliance and the at least one heating conductor layer is arranged on an exterior of the oven muffle , characterised in that - the at least one heating conductor layer (3; 15) contains carbon nanotubes and/or graphene, - the oven muffle is coated with enamel on the exterior , - the heating conductor layer (3; 15) is applied to the enamel as the carrier material, - the oven muffle is lined with polytetrafluoroethylene on its interior , - the oven is designed to operate the at least one heating conductor layer (3; 15) at a maximum temperature of not more than 350°C, in particular at a maximum temperature of not more than 330°C. - the household appliance heater (1; 13) has at least one electrically conductive heating conductor layer (3; 15) applied to a carrier material of a carrier (2; 16), - the carrier (2; 16) is an oven muffle delimiting a treatment compartment of the household appliance and the at least one heating conductor layer is arranged on an exterior of the oven muffle , characterised in that - the at least one heating conductor layer (3; 15) contains carbon nanotubes and/or graphene, - the oven muffle is coated with enamel on the exterior , - the heating conductor layer (3; 15) is applied to the enamel as the carrier material, - the oven muffle is lined with polytetrafluoroethylene on its interior , - the oven is designed to operate the at least one heating conductor layer (3; 15) at a maximum temperature of not more than 350°C, in particular at a maximum temperature of not more than 330°C.
A terminal apparatus for performing communication with another terminal apparatus, comprising: a receiving unit that performs carrier sense to confirm a status of use of a channel using either one of a first threshold and a second threshold; and a transmitting unit that transmits frames, wherein the receiving unit receives a first frame including control information indicating whether to allow carrier sense based on the first threshold, the control information is configured for each frequency resource of the channel, the control information includes information associated with a power control of the terminal apparatus, and the control information includes information indicating a wireless resource where the transmitting unit transmits the frames. a receiving unit that performs carrier sense to confirm a status of use of a channel using either one of a first threshold and a second threshold; and a transmitting unit that transmits frames, wherein the receiving unit receives a first frame including control information indicating whether to allow carrier sense based on the first threshold, the control information is configured for each frequency resource of the channel, the control information includes information associated with a power control of the terminal apparatus, and the control information includes information indicating a wireless resource where the transmitting unit transmits the frames. the control information includes information associated with a power control of the terminal apparatus, and the control information includes information indicating a wireless resource where the transmitting unit transmits the frames.
A method for testing rotationally symmetrical test objects, in particular vehicle or aircraft tires , for which the test object is subjected to different loads; the surface of the test object is examined in spatially offset sections with one or more measuring heads each having a camera ; images of the surface of the test object are detected at different load conditions by an image sensor of the camera ; the captured images are supplied to an image processing system for further processing; the displacement or stress/strain state is calculated on the resulting images displaying the test object via the images of the image processing system; characterised in that at least one axial section of the test object is determined; that the relevant position and orientation of the measuring head relative to the determined axial section, and the rotational position of the measuring head in the circumferential direction relative to the test object are respectively determined for the examined sections of the object surface, and thereof the spatial position is calculated of the resulting images of each imaged portion of the object surface relative to the test object .