mhurhangee/patent-ind-claim-en huggingface dataset:
The use of a phosphonate A or of a mixture of phosphonate A and a phosphonate B, for combatting harmful fungi; where - phosphonate A is a mixture of secondary calcium phosphonate and secondary magnesium phosphonate, and - phosphonate B is selected from the group consisting of primary calcium phosphonate, primary magnesium phosphonate, secondary potassium phosphonate, primary potassium phosphonate, primary ammonium phosphonate and mixtures thereof; where the use does not encompass the therapeutical treatment of the human or animal body. - phosphonate A is a mixture of secondary calcium phosphonate and secondary magnesium phosphonate, and - phosphonate B is selected from the group consisting of primary calcium phosphonate, primary magnesium phosphonate, secondary potassium phosphonate, primary potassium phosphonate, primary ammonium phosphonate and mixtures thereof;
A method for bonding a chip to a polymer substrate by means of heat bonding material disposed there between, wherein the heat bonding material has material properties which cause it to form a bond when its temperature is elevated to a bonding temperature (Tb), the method comprising: pre-heating (PH) at least the substrate from an initial temperature (Ti) to an elevated temperature (Te) remaining below a glass transition temperature (Td_s) of the substrate ; applying a light pulse (Hp) to the chip by means of a flash lamp to momentarily increase the temperature of the chip to a pulsed peak temperature(Tpp_c) remaining below a peak damage temperature of the chip ; wherein the momentarily increased pulsed peak temperature (Tpp_c) of the chip causes a flow of conducted heat from the chip to the bonding material , wherein the conducted heat causes the bonding material to reach the bonding temperature (Tb) to form a bond between the chip and the substrate ; wherein the flow of conducted heat from the chip to the substrate causes a pulsed heating of the substrate , wherein the substrate momentarily reaches a temperature above the glass transition temperature (Td_s), but below a peak damage temperature of the substrate, for a short period of time of less than 100 ms. pre-heating (PH) at least the substrate from an initial temperature (Ti) to an elevated temperature (Te) remaining below a glass transition temperature (Td_s) of the substrate ; applying a light pulse (Hp) to the chip by means of a flash lamp to momentarily increase the temperature of the chip to a pulsed peak temperature(Tpp_c) remaining below a peak damage temperature of the chip ; wherein the momentarily increased pulsed peak temperature (Tpp_c) of the chip causes a flow of conducted heat from the chip to the bonding material , wherein the conducted heat causes the bonding material to reach the bonding temperature (Tb) to form a bond between the chip and the substrate ; wherein the flow of conducted heat from the chip to the substrate causes a pulsed heating of the substrate , wherein the substrate momentarily reaches a temperature above the glass transition temperature (Td_s), but below a peak damage temperature of the substrate, for a short period of time of less than 100 ms.
Unitary integrated device that associates four different systems; this device comprising: - a greenhouse or metallic carpentry structure supporting plastic covers or hail-proof protection nets, with a roof architecture having a wide walkway-gutter channel , wherein the greenhouse or metallic carpentry structure is designed according to a criterion of modularity of each of its component parts and built in a modular way; - a photovoltaic system , said photovoltaic system having a tilting load-bearing frame with a central flat surface installed with photovoltaic panels and two lateral wings consisting of two flat surfaces inclined with respect to the central flat surface, installed with panels reflecting solar radiation ; - a reflective system consisting of reflective panels which direct solar radiation reflected to a capturing surface of the photovoltaic panels having a space , between the photovoltaic panels and the reflective panels , aimed at disposal of heat produced by the photovoltaic panels and outflow of wind - a water system intended for cooling and washing of the photovoltaic panels having a double circuit of pipes that develop laterally, one on the right and the other on the left, along the entire length of the capturing surface of the photovoltaic panels and having a switching valve aimed at reversing water flow alternately from the first of the two piping circuits to the second and vice versa, from the second to the first of the two piping circuits. - a greenhouse or metallic carpentry structure supporting plastic covers or hail-proof protection nets, with a roof architecture having a wide walkway-gutter channel , wherein the greenhouse or metallic carpentry structure is designed according to a criterion of modularity of each of its component parts and built in a modular way; - a photovoltaic system , said photovoltaic system having a tilting load-bearing frame with a central flat surface installed with photovoltaic panels and two lateral wings consisting of two flat surfaces inclined with respect to the central flat surface, installed with panels reflecting solar radiation ; - a reflective system consisting of reflective panels which direct solar radiation reflected to a capturing surface of the photovoltaic panels having a space , between the photovoltaic panels and the reflective panels , aimed at disposal of heat produced by the photovoltaic panels and outflow of wind - a water system intended for cooling and washing of the photovoltaic panels having a double circuit of pipes that develop laterally, one on the right and the other on the left, along the entire length of the capturing surface of the photovoltaic panels and having a switching valve aimed at reversing water flow alternately from the first of the two piping circuits to the second and vice versa, from the second to the first of the two piping circuits.
Antioxidant composition containing an active agent, said active agent comprising nicotinamide, spermidine and at least one further component selected from trehalose and lentztrehalose.
Catalyst gauze for the reduction of the amount of N 2 O in an ammonia oxidation process, containing a first layer of woven or knitted first wire material , whereby said first wire material is made from Pd or a Pd-rich alloy, said first layer containing a reinforcement in the form of a second wire material which is woven or knitted among the first wire material and which has a different composition than the first wire material , said catalyst gauze being characterized in that it contains a second layer disposed parallel to the first layer , and composed of woven or knitted third wire material, whereby said third wire material is made from Pd or a Pd-rich alloy, whereby said second layer also contains the second wire material which is woven or knitted among the third wire material and is present as a pile thread which runs back and forth between the first layer and the second layer .
A catalyst layer correction method for modifying a catalyst layer of a membrane catalyst layer assembly , which is manufactured by transferring the catalyst layer formed on a transfer sheet onto an electrolyte membrane , comprising: detecting (S04) the presence or absence of a defect in the catalyst layer, removing (S07) the defect based on size and position of the defect that is detected, and repairing (S11) the defect by applying a correcting ink corresponding to the catalyst layer to a portion from which the defect has been removed, characterized by that: the method further comprising transferring (S09) the catalyst layer onto the electrolyte membrane and peeling off the transfer sheet from the catalyst layer, the detecting is performed after a catalyst ink that is coated on the transfer sheet has been dried and the catalyst layer has been formed (S02, S03, S04), and the repairing by applying the correcting ink is performed after the catalyst layer has been transferred onto the electrolyte membrane and the transfer sheet has been peeled off (S09, S10, S11). detecting (S04) the presence or absence of a defect in the catalyst layer, removing (S07) the defect based on size and position of the defect that is detected, and repairing (S11) the defect by applying a correcting ink corresponding to the catalyst layer to a portion from which the defect has been removed, characterized by that: the method further comprising transferring (S09) the catalyst layer onto the electrolyte membrane and peeling off the transfer sheet from the catalyst layer, the detecting is performed after a catalyst ink that is coated on the transfer sheet has been dried and the catalyst layer has been formed (S02, S03, S04), and the repairing by applying the correcting ink is performed after the catalyst layer has been transferred onto the electrolyte membrane and the transfer sheet has been peeled off (S09, S10, S11). the method further comprising transferring (S09) the catalyst layer onto the electrolyte membrane and peeling off the transfer sheet from the catalyst layer, the detecting is performed after a catalyst ink that is coated on the transfer sheet has been dried and the catalyst layer has been formed (S02, S03, S04), and the repairing by applying the correcting ink is performed after the catalyst layer has been transferred onto the electrolyte membrane and the transfer sheet has been peeled off (S09, S10, S11).
A separation device for a spacecraft or launcher, the separation device comprising an inner housing divided into at least two portions locked to each other by a locking device in a locking position and thereby hindering the at least two portions from separating, the locking device is engaging the inner housing by locking means and being arranged to move between a locking position and a releasing position, the separation device comprising an initiator comprising means for providing high pressure fluid to an expansion chamber when the separation device is switched from a locked state to a released state, wherein the high pressure fluid in the expansion chamber moves the locking device from the locking position to the releasing position when the separation device is switched from the locked state to the released state, characterized in that the separation device comprises a dampening arrangement arranged to attenuate a peak load when the separation device is switched from the locked state to the released state, wherein the dampening arrangement comprises a guiding means arranged to guide the locking device into a rotational movement when the locking device moves from the locking position to the releasing position, and wherein the guiding means comprises a spirally formed recess in the locking device arranged to cooperate with a protrusion arranged in a surrounding housing or wherein the guiding means is a spirally formed recess in the surrounding housing arranged to cooperate with a protrusion arranged in the locking device .
A sensor assembly comprising: an optical fiber having an optical axis ; a lens in optical communication with said optical fiber , said lens having an optical axis and said lens capable of transmitting a beam of light; a reflective surface , said reflective surface spaced from said lens such that said beam of light transmitted from said lens is capable of reflecting from said reflective surface back to said lens ; and an alignment device comprising a wedge shaped window or a wedge shaped spacer located between said lens and said reflective surface and positioned such that, in use, it aligns said beam of light transmitted from said lens substantially perpendicularly with said reflective surface . an optical fiber having an optical axis ; a lens in optical communication with said optical fiber , said lens having an optical axis and said lens capable of transmitting a beam of light; a reflective surface , said reflective surface spaced from said lens such that said beam of light transmitted from said lens is capable of reflecting from said reflective surface back to said lens ; and an alignment device comprising a wedge shaped window or a wedge shaped spacer located between said lens and said reflective surface and positioned such that, in use, it aligns said beam of light transmitted from said lens substantially perpendicularly with said reflective surface .
A display apparatus , comprising: a substrate ; a first electrode on the substrate , the first electrode including a first portion (21a; 221a, 321a; 421a; 521a) that has a flat upper surface; a second electrode facing the first electrode in parallel on the substrate , the second electrode including a first portion that has a flat upper surface; a plurality of light-emitting devices separate from each other between the first electrode and the second electrode ; a first connection electrode that contacts the first end of each of the plurality of light-emitting devices and the first electrode ; and a second connection electrode that contacts the second end of each of the plurality of light-emitting devices and the second electrode , wherein the first connection electrode covers at least a portion of an upper surface of the first electrode , and the second connection electrode covers at least a portion of an upper surface of the second electrode , wherein the first electrode further includes a second portion (21b; 221b; 321b; 421b; 521b) that protrudes from the first portion (21a; 221a; 321a; 421a; 521a) and has an inclined surface, and in that the second electrode further includes a second portion that protrudes from the first portion and has an inclined surface. a substrate ; a first electrode on the substrate , the first electrode including a first portion (21a; 221a, 321a; 421a; 521a) that has a flat upper surface; a second electrode facing the first electrode in parallel on the substrate , the second electrode including a first portion that has a flat upper surface; a plurality of light-emitting devices separate from each other between the first electrode and the second electrode ; a first connection electrode that contacts the first end of each of the plurality of light-emitting devices and the first electrode ; and a second connection electrode that contacts the second end of each of the plurality of light-emitting devices and the second electrode , wherein the first connection electrode covers at least a portion of an upper surface of the first electrode , and the second connection electrode covers at least a portion of an upper surface of the second electrode , wherein the first electrode further includes a second portion (21b; 221b; 321b; 421b; 521b) that protrudes from the first portion (21a; 221a; 321a; 421a; 521a) and has an inclined surface, and in that the second electrode further includes a second portion that protrudes from the first portion and has an inclined surface.
A body monitoring system assembly , comprising: - a patch for a body monitoring system , the patch comprising a main body with an orifice of at least 2 mm in diameter, the main body comprising a rigid area around the orifice and a flexible area on either side of the rigid area and preferably all around the rigid area , - a capsule , the capsule being configured to be placed in the orifice of the patch and to be secured with the latter, the capsule comprising micro-needles configured to be inserted into the skin in order to sample or analyze a body fluid from the wearer of a body monitoring system when the latter is positioned on a limb of the user, the rigid zone of the main body allowing transmission of the forces received by the patch to the capsule . - a patch for a body monitoring system , the patch comprising a main body with an orifice of at least 2 mm in diameter, the main body comprising a rigid area around the orifice and a flexible area on either side of the rigid area and preferably all around the rigid area , - a capsule , the capsule being configured to be placed in the orifice of the patch and to be secured with the latter, the capsule comprising micro-needles configured to be inserted into the skin in order to sample or analyze a body fluid from the wearer of a body monitoring system when the latter is positioned on a limb of the user, the rigid zone of the main body allowing transmission of the forces received by the patch to the capsule .
A mobile compute device of an investigator system comprising: circuitry configured to: obtain search area data from a surveyor system separate from the investigator system, the search area data indicative of a geographical area in which a gas leak was detected by the surveyor system; obtain route data indicative of a route to be traveled along to pinpoint a location of the gas leak, wherein the route data is determined based on the search area data; and present the route data to a user to guide the user along the route, wherein presenting the route data comprises presenting an instruction to pause traversal of the route by indicating that a speed should be zero in response to a determination about stochasticity in changes of a wind direction and/or a wind velocity relative to a predefined threshold; collect gas detection data from a gas detection device as the user traverses the route; and determine that the gas leak has been found when the gas detection data indicates that a threshold has been met. obtain search area data from a surveyor system separate from the investigator system, the search area data indicative of a geographical area in which a gas leak was detected by the surveyor system; obtain route data indicative of a route to be traveled along to pinpoint a location of the gas leak, wherein the route data is determined based on the search area data; and present the route data to a user to guide the user along the route, wherein presenting the route data comprises presenting an instruction to pause traversal of the route by indicating that a speed should be zero in response to a determination about stochasticity in changes of a wind direction and/or a wind velocity relative to a predefined threshold; collect gas detection data from a gas detection device as the user traverses the route; and determine that the gas leak has been found when the gas detection data indicates that a threshold has been met.
An orthodontic appliance (20, 20 a , 20 b , 120, 220, 320, 420 a , 420 b ) for aligning at least one tooth of a patient's upper or lower jaw, the orthodontic appliance (20, 20 a , 20 b , 120, 220, 320, 420 a , 420 b ) comprising: a force exerting member for applying a force to move the at least one tooth (40, 42, 42 a , 42 b , 42 1-6 ), wherein the force exerting member comprises at least one inflatable element (32, 32 a , 32 b , 32 1 , 32 2 , 32 1 - 6 ), and wherein the at least one inflatable element (32, 32 a , 32 b , 32 1 , 32 2 , 32 1-6 ) is inflated with a fluid which causes the at least one inflatable element (32, 32 a , 32 b , 32 1 , 32 2 , 32 1-6 ) to apply and maintain the force applied to the at least one tooth (40, 42, 42 a , 42 b , 42 1-6 ); a tooth movement sensor (80, 84, 86, 86 a , 86 b , 100) for obtaining tooth movement data, the tooth movement sensor (80, 84, 86, 86 a , 86 b , 100) comprising a mass flow sensor , wherein the mass flow sensor measures the mass of the fluid used to expand the at least one inflatable element (32, 32 a , 32 b , 32 1 , 32 2 , 32 1-6 ); and a tooth movement monitor (46, 46 a , 46 b ) for calculating at least one of a distance the at least one tooth (40, 42, 42 a , 42 b , 42 1-6 ) has moved and a current position of the at least one tooth (40, 42, 42 a , 42 b , 42 1-6 ) from the tooth movement data. a force exerting member for applying a force to move the at least one tooth (40, 42, 42 a , 42 b , 42 1-6 ), wherein the force exerting member comprises at least one inflatable element (32, 32 a , 32 b , 32 1 , 32 2 , 32 1 - 6 ), and wherein the at least one inflatable element (32, 32 a , 32 b , 32 1 , 32 2 , 32 1-6 ) is inflated with a fluid which causes the at least one inflatable element (32, 32 a , 32 b , 32 1 , 32 2 , 32 1-6 ) to apply and maintain the force applied to the at least one tooth (40, 42, 42 a , 42 b , 42 1-6 ); a tooth movement sensor (80, 84, 86, 86 a , 86 b , 100) for obtaining tooth movement data, the tooth movement sensor (80, 84, 86, 86 a , 86 b , 100) comprising a mass flow sensor , wherein the mass flow sensor measures the mass of the fluid used to expand the at least one inflatable element (32, 32 a , 32 b , 32 1 , 32 2 , 32 1-6 ); and a tooth movement monitor (46, 46 a , 46 b ) for calculating at least one of a distance the at least one tooth (40, 42, 42 a , 42 b , 42 1-6 ) has moved and a current position of the at least one tooth (40, 42, 42 a , 42 b , 42 1-6 ) from the tooth movement data.
An implantable medical device, IMD, configured to communicate with an external device, comprising: control circuitry programmed with an advertising algorithm, wherein the advertising algorithm is configured to: establish a first communication session with the external device, wherein the first communications session enables the exchange of first data between the external device and the IMD; terminate the first communication session; and after terminating the first communication session, cause advertisement data to be repeatedly transmitted to the external device at a first time interval for a first duration, and thereafter to cause the advertisement data to be repeatedly transmitted to the external device at a second time interval, wherein the first time interval is shorter than the second time interval, wherein the advertisement data is configured to allow the external device to establish a second communication session with the IMD. establish a first communication session with the external device, wherein the first communications session enables the exchange of first data between the external device and the IMD; terminate the first communication session; and after terminating the first communication session, cause advertisement data to be repeatedly transmitted to the external device at a first time interval for a first duration, and thereafter to cause the advertisement data to be repeatedly transmitted to the external device at a second time interval, wherein the first time interval is shorter than the second time interval, wherein the advertisement data is configured to allow the external device to establish a second communication session with the IMD.