mhurhangee/patent-ind-claim-en huggingface dataset:
Office or conference seating furniture such as for example an office swivel chair, having a backrest and having armrests that are coupled to a seat carrier , and having a connecting arrangement comprising: a backrest structural element , which forms a supporting part of the backrest , a crossbeam element , which the seat carrier is coupled to, a radial bearing via which the backrest structural element is rotatably coupled perpendicular to a transverse direction to the crossbeam element , and a connecting section , which connects the crossbeam element to the backrest structural element and which is arranged and embodied in such a manner that the backrest structural element may move relative to the crossbeam element in a resilient elastic manner, wherein the connecting section is formed in an integral manner from an elastomer material. a backrest structural element , which forms a supporting part of the backrest , a crossbeam element , which the seat carrier is coupled to, a radial bearing via which the backrest structural element is rotatably coupled perpendicular to a transverse direction to the crossbeam element , and a connecting section , which connects the crossbeam element to the backrest structural element and which is arranged and embodied in such a manner that the backrest structural element may move relative to the crossbeam element in a resilient elastic manner, wherein the connecting section is formed in an integral manner from an elastomer material.
Method for creating a substrate of the type semiconductor on insulator, comprising the following steps: a) providing a donor substrate comprising a monocrystalline support substrate , a smoothing layer and a semiconductor layer , the smoothing layer forming an etch stop layer with respect to the material of the support substrate; a') implantation of ion species through the semiconductor layer so as to form a fragilisation plane ; b) creating an assembly by placing the donor substrate and a receiver substrate in contact; c) transferring the semiconductor layer , and at least a part of the smoothing layer onto the receiver substrate by detachment along the fragilization plane; d) carrying out a selective etching of said part of the support substrate with respect to the smoothing layer ; said method being characterised in that the semiconductor layer of the donor substrate provided in step a) is monocrystalline and in that it further comprises the following steps: - before step b), amorphisation of at least a part of the semiconductor layer to form an amorphous layer ; - during or after step c), recrystallisation in solid phase of the amorphous layer to form a transferred monocrystalline semiconductor layer . a) providing a donor substrate comprising a monocrystalline support substrate , a smoothing layer and a semiconductor layer , the smoothing layer forming an etch stop layer with respect to the material of the support substrate; a') implantation of ion species through the semiconductor layer so as to form a fragilisation plane ; b) creating an assembly by placing the donor substrate and a receiver substrate in contact; c) transferring the semiconductor layer , and at least a part of the smoothing layer onto the receiver substrate by detachment along the fragilization plane; d) carrying out a selective etching of said part of the support substrate with respect to the smoothing layer ; said method being characterised in that the semiconductor layer of the donor substrate provided in step a) is monocrystalline and in that it further comprises the following steps: - before step b), amorphisation of at least a part of the semiconductor layer to form an amorphous layer ; - during or after step c), recrystallisation in solid phase of the amorphous layer to form a transferred monocrystalline semiconductor layer . - before step b), amorphisation of at least a part of the semiconductor layer to form an amorphous layer ; - during or after step c), recrystallisation in solid phase of the amorphous layer to form a transferred monocrystalline semiconductor layer .
A film , comprising: a crystalline stretched oriented film ; and a breaking portion including one or more non-oriented portions formed by heating a part of the crystalline stretched oriented film at a temperature equal to or higher than a melting point of the crystalline stretched oriented film , the one or more non-oriented portions facing each other with an oriented portion of the crystalline stretched oriented film interposed therebetween, wherein the one or more non-oriented portions each comprises a short side and a long side, and are arranged such that short sides are close to each other with the oriented portion interposed therebetween, or a short side and a long side are close to each other with the oriented portion interposed therebetween, and a breaking elongation of the one or more non-oriented portions is greater than a breaking elongation of the oriented portion. a crystalline stretched oriented film ; and a breaking portion including one or more non-oriented portions formed by heating a part of the crystalline stretched oriented film at a temperature equal to or higher than a melting point of the crystalline stretched oriented film , the one or more non-oriented portions facing each other with an oriented portion of the crystalline stretched oriented film interposed therebetween, wherein the one or more non-oriented portions each comprises a short side and a long side, and are arranged such that short sides are close to each other with the oriented portion interposed therebetween, or a short side and a long side are close to each other with the oriented portion interposed therebetween, and a breaking elongation of the one or more non-oriented portions is greater than a breaking elongation of the oriented portion.
An information communication method of obtaining a subject ID from a subject , the information communication method comprising: transmitting, by an information communication device , position information indicating a position of an image sensor used to capture the subject; the information communication device including the image sensor, receiving by the information communication device (SK52) an ID list that is associated with the position indicated by the position information; setting (SK53) an exposure time of the image sensor so that, in an image obtained by capturing the subject by the image sensor, a bright line corresponding to an exposure line included in the image sensor appears according to a change in luminance of the subject; obtaining (SK54) a bright line image including the bright line, by capturing the subject that changes in luminance by the image sensor with the set exposure time; obtaining (SK55) at least part of the subject ID by demodulating data specified by a pattern of the bright line included in the obtained bright line image; and searching (SK56) within the received ID list for an ID comprising the obtained at least part of the subject ID. transmitting, by an information communication device , position information indicating a position of an image sensor used to capture the subject; the information communication device including the image sensor, receiving by the information communication device (SK52) an ID list that is associated with the position indicated by the position information; setting (SK53) an exposure time of the image sensor so that, in an image obtained by capturing the subject by the image sensor, a bright line corresponding to an exposure line included in the image sensor appears according to a change in luminance of the subject; obtaining (SK54) a bright line image including the bright line, by capturing the subject that changes in luminance by the image sensor with the set exposure time; obtaining (SK55) at least part of the subject ID by demodulating data specified by a pattern of the bright line included in the obtained bright line image; and searching (SK56) within the received ID list for an ID comprising the obtained at least part of the subject ID.
A curable composition characterized by comprising a 2-cyanoacrylate and a particle containing titanium oxide and silicon oxide, wherein proportions of the titanium oxide and the silicon oxide in the particle are respectively 70% to 96% by mass and 4% to 30% by mass based on 100% by mass of a total content of the titanium oxide and the silicon oxide.
A sleeve for mounting onto a pipe , comprising: - a surface which defines an elongated hollow for accommodating a pipe , and an opening of the hollow; - a recess of the surface of the sleeve for accommodating a C-shaped metal clamping element , wherein the recess comprises a sloped portion , and further comprises an extended portion , extending from the sloped portion to a position less than 5mm from the opening, wherein the hollow defines a first cross-section area for accommodating the pipe such that the sidewall of the pipe can tightly fit against the sidewall of the hollow,, and the extended portion of the recess defines a second cross-section area, and the sloped portion defines a third cross-section area, wherein the third cross-section area is larger than the second cross-section area, and wherein the first cross-section area is smaller than the second cross-section area, characterized in that the first cross-section area defines a first diameter d1, and the second cross-section area defines a second diameter d2, and wherein d2 minus d1 is at least 7mm, such that the size of the clamping element is not significantly reduced when bringing the clamping element to the recess along the extended portion . - a surface which defines an elongated hollow for accommodating a pipe , and an opening of the hollow; - a recess of the surface of the sleeve for accommodating a C-shaped metal clamping element , wherein the recess comprises a sloped portion , and further comprises an extended portion , extending from the sloped portion to a position less than 5mm from the opening, wherein the hollow defines a first cross-section area for accommodating the pipe such that the sidewall of the pipe can tightly fit against the sidewall of the hollow,, and the extended portion of the recess defines a second cross-section area, and the sloped portion defines a third cross-section area, wherein the third cross-section area is larger than the second cross-section area, and wherein the first cross-section area is smaller than the second cross-section area, characterized in that the first cross-section area defines a first diameter d1, and the second cross-section area defines a second diameter d2, and wherein d2 minus d1 is at least 7mm, such that the size of the clamping element is not significantly reduced when bringing the clamping element to the recess along the extended portion .
A method for disposing exhaust gas in a combustion equipment wherein air is separated by an air separation unit into oxygen and other nitrogen-prevailing gas , the oxygen obtained in the air separation unit and fuel being burned by a burner of a combustion furnace , combustion exhaust gas from the combustion furnace being, at least after dust removal treatment, partly recirculated as recirculation gas to a boiler body, the unrecirculated remainder of the combustion exhaust gas being discharged to the atmosphere, said method comprising compressing said unrecirculated remainder of the combustion exhaust gas taken out downstream of exhaust gas processing means so as to take out liquefied carbon dioxide , mixing and diluting other exhaust gas components , which are taken out without liquefaction, through the compression to have enhanced concentration, with the other nitrogen-prevailing gas produced in the separation of the oxygen from the air in the air separation unit , and discharging the mixed and diluted gas to the atmosphere.
A replaceable liquid supply to connect to a liquid dispenser, comprising: multiple compartments separated by single internal walls each compartment to hold a distinct liquid, and multiple liquid outlets , each fluidically connected to one of the compartments, to supply respective liquids to corresponding dispenser inlets of distinct receiving slots of a dispenser , multiple clearance cut outs disposed at a pitch equal to a pitch of the outlets to accommodate protrusions of a dispenser, and at least one latch (13; 113) protruding outwards from a back face of the supply, characterised in that it comprises also: multiple vents each communicating with one compartment, one seal covering all vents, wherein the seal comprises tear lines across the seal that are interrupted near each vent . multiple compartments separated by single internal walls each compartment to hold a distinct liquid, and multiple liquid outlets , each fluidically connected to one of the compartments, to supply respective liquids to corresponding dispenser inlets of distinct receiving slots of a dispenser , multiple clearance cut outs disposed at a pitch equal to a pitch of the outlets to accommodate protrusions of a dispenser, and at least one latch (13; 113) protruding outwards from a back face of the supply, characterised in that it comprises also: multiple vents each communicating with one compartment, one seal covering all vents, wherein the seal comprises tear lines across the seal that are interrupted near each vent . multiple vents each communicating with one compartment, one seal covering all vents, wherein the seal comprises tear lines across the seal that are interrupted near each vent .
An anti-granulocyte macrophage colony-stimulating factor (GM-CSF) antibody, for use in treating aortic intramural hematoma.
A delay fuse assembly , comprising: a cylindrical housing having: a common axis; a first cylindrical portion with a first distal end, a first outer surface, and a first diameter and having first outer threads located on the first outer surface, wherein the first outer threads are adapted to interface with threads on a distal end of a perforating gun ; a second cylindrical portion with a second distal end, a second outer surface, and a second diameter and having second outer threads located on the second outer surface, wherein the second outer threads are adapted to interface with threads on a distal end of a perforating gun ; a third portion, located between and integral with the first cylindrical portion and the second cylindrical portion whereby the first cylindrical portion, the second cylindrical portion, and the third cylindrical portion are axially aligned about the common axis, and having a third outer surface and a third diameter; a first cylindrical cavity (129; 259) located within and axially aligned with the first cylindrical portion; a second cylindrical cavity (131; 260) located within and axially aligned with the second cylindrical portion; and an axial through hole , explosively coupling the first cylindrical cavity with the second cylindrical cavity , wherein the first cylindrical cavity (129; 259) houses a firing pin assembly (116; 219) which can be activated by a booster of the first perforation gun with explosive energy and a percussion initiator (117; 220), the second cylindrical cavity (131; 260) houses a delay fuse (118; 222) which can be ignited by the percussion initiator . a common axis; a first cylindrical portion with a first distal end, a first outer surface, and a first diameter and having first outer threads located on the first outer surface, wherein the first outer threads are adapted to interface with threads on a distal end of a perforating gun ; a second cylindrical portion with a second distal end, a second outer surface, and a second diameter and having second outer threads located on the second outer surface, wherein the second outer threads are adapted to interface with threads on a distal end of a perforating gun ; a third portion, located between and integral with the first cylindrical portion and the second cylindrical portion whereby the first cylindrical portion, the second cylindrical portion, and the third cylindrical portion are axially aligned about the common axis, and having a third outer surface and a third diameter; a first cylindrical cavity (129; 259) located within and axially aligned with the first cylindrical portion; a second cylindrical cavity (131; 260) located within and axially aligned with the second cylindrical portion; and an axial through hole , explosively coupling the first cylindrical cavity with the second cylindrical cavity , wherein the first cylindrical cavity (129; 259) houses a firing pin assembly (116; 219) which can be activated by a booster of the first perforation gun with explosive energy and a percussion initiator (117; 220), the second cylindrical cavity (131; 260) houses a delay fuse (118; 222) which can be ignited by the percussion initiator .
An optical transmission device comprising a cyclic AWG configured to filter respective optical signals (Ch 11, Ch 12, Ch 13, ..., Ch 33) inputted to each input port (P1, P2, P3), wherein the respective optical signals (Ch 11, Ch 12, Ch 13, ..., Ch 33) are constituted so that a plurality of wavelength-multiplexed signals can be allocated within one channel band, wherein a channel band is divided in channel units, wherein the respective optical signals (Ch 11, Ch 12, Ch 13, ..., Ch 33) are filtered in channel units, and a pass-band width of each of the input ports (P1, P2, P3) of the cyclic AWG corresponds to a bandwidth of each of the channel, characterized in that the optical transmission device further comprises: n, where n is a natural number not less than 2, beam splitters (BS_1, BS_2, BS_3) each of which is connected to one of n input side paths; and n cyclic AWGs (AWG_1, AWG_2, AWG_3) that are arranged at a succeeding stage of the n beam splitters, wherein each of the n beam splitters is configured to output respective optical signals (Ch 11, Ch 12, Ch 13, ..., Ch 33) that are inputted to the beam splitter to one of the input ports (P1, P2, P3) of each of the n cyclic AWGs (AWG_1, AWG_2, AWG_3), each of the n cyclic AWGs (AWG_1, AWG_2, AWG_3) is a cyclic AWG with n inputs and one output, and each of the n cyclic AWGs (AWG_1, AWG_2, AWG_3) is configured to filter the respective optical signals (Ch 11, Ch 12, Ch 13, ..., Ch 33) inputted to each of the input ports (P1, P2, P3) and to output the filtered optical signals to an output side path. n, where n is a natural number not less than 2, beam splitters (BS_1, BS_2, BS_3) each of which is connected to one of n input side paths; and n cyclic AWGs (AWG_1, AWG_2, AWG_3) that are arranged at a succeeding stage of the n beam splitters, wherein each of the n beam splitters is configured to output respective optical signals (Ch 11, Ch 12, Ch 13, ..., Ch 33) that are inputted to the beam splitter to one of the input ports (P1, P2, P3) of each of the n cyclic AWGs (AWG_1, AWG_2, AWG_3), each of the n cyclic AWGs (AWG_1, AWG_2, AWG_3) is a cyclic AWG with n inputs and one output, and each of the n cyclic AWGs (AWG_1, AWG_2, AWG_3) is configured to filter the respective optical signals (Ch 11, Ch 12, Ch 13, ..., Ch 33) inputted to each of the input ports (P1, P2, P3) and to output the filtered optical signals to an output side path.
A fibrous structure comprising filaments wherein the filaments comprise one or more filament-forming materials and one or more active agents that are releasable from the filament when exposed to conditions of intended use, the fibrous structure further comprising: a) a continuous network region, wherein the network region comprises a first average density; and b) a plurality of discrete zones comprising a second average density, wherein the discrete zones being dispersed throughout the network region, and wherein the first average density and the second average density are different; and c) a transition region between the network region and the discrete zones comprising a third average density, wherein the third average density is different to the first average density and the second average density; and wherein the active agent is selected from the group consisting of: skin benefit agents, medical agents, lotions, fabric care agents, dishwashing agents, carpet care agents, surface care agents, hair care agents, air care agents, teeth whitening agents, tooth care agents, mouthwash agents, and periodontal gum care agents; and wherein the filament-forming material comprises a polymer, and wherein the polymer is a water-soluble hydroxyl polymer. a) a continuous network region, wherein the network region comprises a first average density; and b) a plurality of discrete zones comprising a second average density, wherein the discrete zones being dispersed throughout the network region, and wherein the first average density and the second average density are different; and c) a transition region between the network region and the discrete zones comprising a third average density, wherein the third average density is different to the first average density and the second average density; and
A method of inspecting and coating the interior surface walls of a pipe system , the method comprising: towing a plurality of housings through said pipe system using an umbilical tether , wherein the umbilical tether connects said housing to one another; evaluating a condition of interior surface walls of said pipe system using a first scanning equipment contained in a first of said housings; evaluating the structural condition of the wall of said pipe system using said second scanning equipment contained in a second of said housings; and applying a coating material to said interior surface of said pipe system from a coating device contained in a third of said housings; wherein a control computer is connected to said umbilical tether, said control computer receiving and recording data about the condition of said pipe system from said first and second scanning equipment, and wherein the control computer controls a rate of application of said coating device based on the condition of said pipe system; wherein the coating material is supplied to the coating device from the umbilical tether and said umbilical tether is used for transmitting data between the control computer and the housings. towing a plurality of housings through said pipe system using an umbilical tether , wherein the umbilical tether connects said housing to one another; evaluating a condition of interior surface walls of said pipe system using a first scanning equipment contained in a first of said housings; evaluating the structural condition of the wall of said pipe system using said second scanning equipment contained in a second of said housings; and applying a coating material to said interior surface of said pipe system from a coating device contained in a third of said housings; wherein a control computer is connected to said umbilical tether, said control computer receiving and recording data about the condition of said pipe system from said first and second scanning equipment, and wherein the control computer controls a rate of application of said coating device based on the condition of said pipe system; wherein the coating material is supplied to the coating device from the umbilical tether and said umbilical tether is used for transmitting data between the control computer and the housings.