mhurhangee/ep-ind-claims huggingface dataset:
A method for machining a substrate using a punching die, the substrate extending at least partially in a plane, the method comprising: - punching out an opening in the part of the substrate extending in the plane by the punching die, the punching die being in a first punching position when punching out, seen in the direction of the plane, characterized in that the method additionally comprises: - after punching out, performing a relative movement of the punching die and substrate in a direction parallel to the plane, due to the relative movement seen in the direction of the plane, the punching die comes to lie over a desired filling material in a second punching position, - in the second punching position, punching out a filling element from the desired filling material by the punching die, the filling element remaining in the punching die, - again performing a relative movement of the punching die and substrate in a direction parallel to the plane, due to the relative movement seen in the direction of the plane, the punching die coming to rest above the opening of the substrate in the first punching position, - inserting the filling element remaining in the punching die by the punching die into the opening of the substrate. - punching out an opening in the part of the substrate extending in the plane by the punching die, the punching die being in a first punching position when punching out, seen in the direction of the plane, - after punching out, performing a relative movement of the punching die and substrate in a direction parallel to the plane, due to the relative movement seen in the direction of the plane, the punching die comes to lie over a desired filling material in a second punching position, - in the second punching position, punching out a filling element from the desired filling material by the punching die, the filling element remaining in the punching die, - in the second punching position, punching out a filling element from the desired filling material by the punching die, the filling element remaining in the punching die, - again performing a relative movement of the punching die and substrate in a direction parallel to the plane, due to the relative movement seen in the direction of the plane, the punching die coming to rest above the opening of the substrate in the first punching position, - inserting the filling element remaining in the punching die by the punching die into the opening of the substrate.
Device for qualitative and/or quantitative detection of molecular interactions between probe molecules and target molecules in a sample solution, comprising: a microarray having probe molecules immobilized on array elements, wherein the microarray (1.5) is arranged on a first surface of the device; and a reaction chamber (1.1) which is formed between the first surface having the microarray (1.5) arranged thereon and a second surface, wherein laterally limiting compensation zones are provided for the reaction chamber (1.1), which keep the volume within the reaction chamber (1.1) essentially constant upon reduction of the distance between the microarray (1.5) and the second surface such that the sample solution between the microarray (1.5) and the second surface is essentially removed, characterized in that the first surface is elastically deformable at least in the zone below the microarray (1.5) such that the microarray (1.5) may be guided relative to the second surface so that the distance between the microarray and the second surface is variable such that the sample solution between the microarray (1.5) and the second surface is essentially removed. a microarray having probe molecules immobilized on array elements, wherein the microarray (1.5) is arranged on a first surface of the device; and a reaction chamber (1.1) which is formed between the first surface having the microarray (1.5) arranged thereon and a second surface, wherein laterally limiting compensation zones are provided for the reaction chamber (1.1), which keep the volume within the reaction chamber (1.1) essentially constant upon reduction of the distance between the microarray (1.5) and the second surface such that the sample solution between the microarray (1.5) and the second surface is essentially removed, characterized in that the first surface is elastically deformable at least in the zone below the microarray (1.5) such that the microarray (1.5) may be guided relative to the second surface so that the distance between the microarray and the second surface is variable such that the sample solution between the microarray (1.5) and the second surface is essentially removed.
A method of producing a packaged microelectronic component joined to a secondary structure comprising: providing said packaged microelectronic component that includes a substrate having a top surface and a bottom surface, a semiconductor die (28, 30) coupled to said top surface, wherein said substrate comprises a heat sink configured for dissipating heat; providing a secondary structure comprising a printed circuit board, PCB having a plurality of thermal vias extending through it, and applying a metal particle-containing material to either said bottom surface of said substrate or to a mounting surface of said PCB, said metal particle-containing material being configured to sinter to produce a sintered bond layer joining said packaged microelectronic component to said secondary structure, wherein said sintering joins said heat sink with said plurality thermal vias. providing said packaged microelectronic component that includes a substrate having a top surface and a bottom surface, a semiconductor die (28, 30) coupled to said top surface, wherein said substrate comprises a heat sink configured for dissipating heat; providing a secondary structure comprising a printed circuit board, PCB having a plurality of thermal vias extending through it, and applying a metal particle-containing material to either said bottom surface of said substrate or to a mounting surface of said PCB, said metal particle-containing material being configured to sinter to produce a sintered bond layer joining said packaged microelectronic component to said secondary structure, wherein said sintering joins said heat sink with said plurality thermal vias.
A 3-dimensional pattern puncher for punching a lithium metal electrode to provide one or more unit electrodes, the 3D pattern puncher comprising: a mold punch configured to move up and down, the mold punch corresponding to a size of the unit electrode; a die corresponding to the mold punch; a mold blade disposed at an edge of the mold punch and configured to punch the lithium metal electrode to provide the one or more unit electrodes; and a 3D pattern (2, 12, 22) positioned at an inner portion of the mold punch where the mold blade is not disposed, characterized in that: the mold punch is one of a metal mold and the 3D pattern (2, 12, 22) adhered thereto, the 3D pattern (2, 12, 22) being made of a polymer material, or a mold and the 3D pattern (2, 12, 22) integrally made of a polymer material. a mold punch configured to move up and down, the mold punch corresponding to a size of the unit electrode; a die corresponding to the mold punch; a mold blade disposed at an edge of the mold punch and configured to punch the lithium metal electrode to provide the one or more unit electrodes; and a 3D pattern (2, 12, 22) positioned at an inner portion of the mold punch where the mold blade is not disposed, characterized in that: the mold punch is one of a metal mold and the 3D pattern (2, 12, 22) adhered thereto, the 3D pattern (2, 12, 22) being made of a polymer material, or a mold and the 3D pattern (2, 12, 22) integrally made of a polymer material.
A process for the preparation of an aqueous anionically stabilized polymer dispersion comprising the steps a. a first emulsion polymerization of a first monomer mixture comprising acid functional monomers M1 comprising acid groups and less than 2 wt% (relative to the total weight of the first monomer mixture) amine functional monomers M2 comprising amine groups to form a first phase polymer dispersion of an acid functional oligomer P1 having a number average molecular weight Mn P1 between 500 and 50,000 g/mole (as determined by GPC using THF in combination with acetic acid) and a Fox glass transition temperature Tg P1 of at least 0°C, b. adding a base to increase the pH in a range between 6 and 11, c. a second emulsion polymerisation in the presence of the first phase polymer dispersion P1 of a second monomer mixture comprising amine functional monomers M2* having sterically hindered secondary amine or tertiary amine groups and less than 2 wt% (relative to the total weight of the second monomer mixture) acid functional monomers M1 to form a second phase of an amine functional polymer P2 having a Fox glass transition temperature Tg P2 of at least 0 °C, d. wherein Tg P2 is lower than Tg P1 by at least 5 °C and e. wherein the resulting anionically stabilized polymer dispersion comprises dispersed particles having within the particles separate unmixed first and second phases, wherein the Fox Tg is calculated based on constituting monomers in the monomer mixtures not including chain transfer agents or reactive surfactants. a. a first emulsion polymerization of a first monomer mixture comprising acid functional monomers M1 comprising acid groups and less than 2 wt% (relative to the total weight of the first monomer mixture) amine functional monomers M2 comprising amine groups to form a first phase polymer dispersion of an acid functional oligomer P1 having a number average molecular weight Mn P1 between 500 and 50,000 g/mole (as determined by GPC using THF in combination with acetic acid) and a Fox glass transition temperature Tg P1 of at least 0°C, b. adding a base to increase the pH in a range between 6 and 11, c. a second emulsion polymerisation in the presence of the first phase polymer dispersion P1 of a second monomer mixture comprising amine functional monomers M2* having sterically hindered secondary amine or tertiary amine groups and less than 2 wt% (relative to the total weight of the second monomer mixture) acid functional monomers M1 to form a second phase of an amine functional polymer P2 having a Fox glass transition temperature Tg P2 of at least 0 °C, d. wherein Tg P2 is lower than Tg P1 by at least 5 °C and e. wherein the resulting anionically stabilized polymer dispersion comprises dispersed particles having within the particles separate unmixed first and second phases, wherein the Fox Tg is calculated based on constituting monomers in the monomer mixtures not including chain transfer agents or reactive surfactants.
A medical device for measuring blood pressure, comprising: an elongated shaft having a proximal region and a distal region; an optical fiber extending along the proximal region; wherein the optical fiber is secured to an inner surface of the shaft; an optical pressure sensor coupled to the optical fiber, the optical pressure sensor being disposed along the distal region; and a sealing member attached to the optical fiber and having a surface engaged with the inner surface of the shaft, wherein the sealing member includes a conical portion. an elongated shaft having a proximal region and a distal region; an optical fiber extending along the proximal region; wherein the optical fiber is secured to an inner surface of the shaft; an optical pressure sensor coupled to the optical fiber, the optical pressure sensor being disposed along the distal region; and a sealing member attached to the optical fiber and having a surface engaged with the inner surface of the shaft, wherein the sealing member includes a conical portion.
A method of making an adsorbent laminate for high frequency PSA processes, comprising: forming an intermediate slurry comprising a liquid suspending agent, an adsorbent material and a binder; milling the intermediate slurry to form a milled slurry; and making a laminate by applying the milled slurry to a support material using a coating system selected from a transfer roll, a roll coater, a split roll coater, a sequester roller and a flooded nip coater. forming an intermediate slurry comprising a liquid suspending agent, an adsorbent material and a binder; milling the intermediate slurry to form a milled slurry; and making a laminate by applying the milled slurry to a support material using a coating system selected from a transfer roll, a roll coater, a split roll coater, a sequester roller and a flooded nip coater.
A substrate processing apparatus comprising: a gas introduction structure made of a non-metallic material, penetrating a side wall of a process vessel and integrated with the side wall as a single structure, wherein a front end thereof protrudes into the process vessel; a nozzle made of a non-metallic material and comprising a first straight portion inserted into the gas introduction structure and fluidically communicating with the gas introduction structure; and a second straight portion fluidically communicating with the first straight portion and extending along an inner wall of the process vessel; and a fixing block provided at an inner side of the side wall of the process vessel and above the gas introduction structure, wherein the fixing block is provided with a groove in which the nozzle is capable of being moved in a radial direction of the process vessel. a gas introduction structure made of a non-metallic material, penetrating a side wall of a process vessel and integrated with the side wall as a single structure, wherein a front end thereof protrudes into the process vessel; a nozzle made of a non-metallic material and comprising a first straight portion inserted into the gas introduction structure and fluidically communicating with the gas introduction structure; and a second straight portion fluidically communicating with the first straight portion and extending along an inner wall of the process vessel; and a first straight portion inserted into the gas introduction structure and fluidically communicating with the gas introduction structure; and a second straight portion fluidically communicating with the first straight portion and extending along an inner wall of the process vessel; and a fixing block provided at an inner side of the side wall of the process vessel and above the gas introduction structure, wherein the fixing block is provided with a groove in which the nozzle is capable of being moved in a radial direction of the process vessel.
A polypeptide, wherein the amino acid sequence of the polypeptide: (a) comprises the amino acid sequence set forth in SEQ ID NO: 1 or 3; (b) comprises an amino acid sequence which has at least 70% sequence identity with SEQ ID NO: 1 or 3 and which codes for a cyclodextrin glucanotransferase; (c) is encoded by the nucleotide sequence set forth in SEQ ID NO: 2 or 4; or (d) is encoded by a nucleotide sequence which has at least 70% sequence identity with the nucleotide sequence set forth in SEQ ID NO: 2 or 4, and which encodes a cyclodextrin glucanotransferase. (a) comprises the amino acid sequence set forth in SEQ ID NO: 1 or 3; (b) comprises an amino acid sequence which has at least 70% sequence identity with SEQ ID NO: 1 or 3 and which codes for a cyclodextrin glucanotransferase; (c) is encoded by the nucleotide sequence set forth in SEQ ID NO: 2 or 4; or (d) is encoded by a nucleotide sequence which has at least 70% sequence identity with the nucleotide sequence set forth in SEQ ID NO: 2 or 4, and which encodes a cyclodextrin glucanotransferase.
An adaptive optics scanning system comprising: an emission source for generating a first light, the first light being directed through the adaptive optics scanning system to a sample; one or more adaptive optics element(s), the adaptive optics element(s) affecting the wavefront, affecting the intensity, or affecting both the wavefront and intensity of the first light; a beam projection module, the beam projection module comprising a beam steering mechanism operating with four or more axes of motion and controlling an angle and position of the first light to interface the adaptive optics element by creating or accommodating a beam pivot point at or near the adaptive optics element(s) while scanning the first light across the sample in at least the x and y directions, each of the scanning in the x and y directions being provided by a pair of beam steering elements, wherein the beam projection module creates the beam pivot point to be used as the linkage between the beam steering mechanism and the adaptive optics element(s) without relaying the wavefront and intensity distribution of the beam of the first light, and wherein the first light is collimated within the beam projection module; a controller for controlling motion trajectories of the axes in the beam projection module; sample delivery optics, the sample delivery optics appropriately conditioning and directing the first light to the sample; one or more detector(s), the detector(s) measuring a second light from the sample. an emission source for generating a first light, the first light being directed through the adaptive optics scanning system to a sample; one or more adaptive optics element(s), the adaptive optics element(s) affecting the wavefront, affecting the intensity, or affecting both the wavefront and intensity of the first light; a beam projection module, the beam projection module comprising a beam steering mechanism operating with four or more axes of motion and controlling an angle and position of the first light to interface the adaptive optics element by creating or accommodating a beam pivot point at or near the adaptive optics element(s) while scanning the first light across the sample in at least the x and y directions, each of the scanning in the x and y directions being provided by a pair of beam steering elements, wherein the beam projection module creates the beam pivot point to be used as the linkage between the beam steering mechanism and the adaptive optics element(s) without relaying the wavefront and intensity distribution of the beam of the first light, and wherein the first light is collimated within the beam projection module; a controller for controlling motion trajectories of the axes in the beam projection module; sample delivery optics, the sample delivery optics appropriately conditioning and directing the first light to the sample; one or more detector(s), the detector(s) measuring a second light from the sample.
A method of coating a medical device, with said medical device being a stent mounted on a balloon, wherein the stent comprises an outer surface, the method comprising: applying a coating composition on one or more portions of the balloon which are not covered by the stent and on the outer surface of the stent to form a layer on the medical device, the coating composition comprising at least one of at least one biological agent and heparin dissolved in a mixture of a first solvent and a second solvent, the first solvent and the second solvent having different evaporation temperatures; evaporating at least a part of one of the first solvent and the second solvent present in the coating composition to create a plurality of pores in the layer; and depositing at least one drug in the plurality of pores, wherein the at least one drug is formulated as nano-carriers. applying a coating composition on one or more portions of the balloon which are not covered by the stent and on the outer surface of the stent to form a layer on the medical device, the coating composition comprising at least one of at least one biological agent and heparin dissolved in a mixture of a first solvent and a second solvent, the first solvent and the second solvent having different evaporation temperatures; evaporating at least a part of one of the first solvent and the second solvent present in the coating composition to create a plurality of pores in the layer; and depositing at least one drug in the plurality of pores, wherein the at least one drug is formulated as nano-carriers.
A rope storage unit for storing an elevator rope (3,3',3",3'") during transport and/or installation of the elevator rope (3,3',3",3'"), the rope storage unit comprising a rope reel, formed by a rope (3,3',3",3"') wound in a spiral form and having a central axis (x); and a support frame provided with an inner space inside which the rope reel is positioned supported by the support frame such that it can in use be rotated in the inner space for unwinding the rope (3,3',3",3"'); wherein the rope (3,3',3",3'") is a rod having a straight form when in rest state and elastically bendable away from the straight form, the rope (3,3',3",3"') being under substantial bending tension in said spiral form, and characterized in that the support frame comprises three or more rotatable support rollers delimiting said inner space and surrounding radially said rope reel.
Method for constructing a physical layer header adapted to transmit a frame comprising data addressed to a wireless terminal, the method comprising the following steps carried out by an access point of a wireless local area network over which the frame is intended to be transmitted by the access point: including, in a common signalling field, an identification of at least one channel resource intended to be used to transmit the frame, including, in a specific signalling field, information representing an association between an identifier of a channel resource, from the channel resource or resources intended to be used to transmit the frame, and an identifier of the wireless terminal, so that the wireless terminal can determine the channel resource to listen to in order to receive the data addressed to said wireless terminal, and also including, in the specific signalling field, an indication of the existence or otherwise of at least one other channel resource, from the channel resource or resources intended to be used to transmit the frame, having an identifier also associated with the identifier of the wireless terminal in order to receive said data addressed to said wireless terminal. including, in a common signalling field, an identification of at least one channel resource intended to be used to transmit the frame, including, in a specific signalling field, information representing an association between an identifier of a channel resource, from the channel resource or resources intended to be used to transmit the frame, and an identifier of the wireless terminal, so that the wireless terminal can determine the channel resource to listen to in order to receive the data addressed to said wireless terminal, and also including, in the specific signalling field, an indication of the existence or otherwise of at least one other channel resource, from the channel resource or resources intended to be used to transmit the frame, having an identifier also associated with the identifier of the wireless terminal in order to receive said data addressed to said wireless terminal.