mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing a compressed bone composition, comprising: Loading bone fibers into a mold with a predetermined shape, applying pressure between 100 and 1000 psi (not including the end values) to the loaded bone fibers , and freeze drying the compressed bone fibers to provide the compressed bone composition, wherein the compressed bone composition does not comprise a binder or a chemical crosslinker. Loading bone fibers into a mold with a predetermined shape, applying pressure between 100 and 1000 psi (not including the end values) to the loaded bone fibers , and freeze drying the compressed bone fibers to provide the compressed bone composition, wherein the compressed bone composition does not comprise a binder or a chemical crosslinker.
A method of detecting a rate of change of temperature in the environment of a sensing optical fibre , comprising: delivering probe light pulses into a sensing optical fibre disposed within the environment , each probe light pulse comprising two sections of higher intensity spaced apart by a section of lower or substantially zero intensity, the two sections of higher intensity being substantially coherent with each other; and for each of a plurality of positions along the sensing optical fibre: detecting a time varying coherent Rayleigh backscatter interference signal from probe light backscattered within the sensing fibre from the associated position; calculating a spectral density profile of the time varying coherent Rayleigh backscatter interference signal, the spectral density profile representing frequency components in the time variations of the coherent Rayleigh backscatter interference signal at that position; detecting one or more properties of a spectral peak in the spectral density profile; and determining a rate of change of temperature in the environment of the sensing optical fibre at that position from the one or more properties of the spectral peak. delivering probe light pulses into a sensing optical fibre disposed within the environment , each probe light pulse comprising two sections of higher intensity spaced apart by a section of lower or substantially zero intensity, the two sections of higher intensity being substantially coherent with each other; and for each of a plurality of positions along the sensing optical fibre: detecting a time varying coherent Rayleigh backscatter interference signal from probe light backscattered within the sensing fibre from the associated position; calculating a spectral density profile of the time varying coherent Rayleigh backscatter interference signal, the spectral density profile representing frequency components in the time variations of the coherent Rayleigh backscatter interference signal at that position; detecting one or more properties of a spectral peak in the spectral density profile; and determining a rate of change of temperature in the environment of the sensing optical fibre at that position from the one or more properties of the spectral peak. detecting a time varying coherent Rayleigh backscatter interference signal from probe light backscattered within the sensing fibre from the associated position; calculating a spectral density profile of the time varying coherent Rayleigh backscatter interference signal, the spectral density profile representing frequency components in the time variations of the coherent Rayleigh backscatter interference signal at that position; detecting one or more properties of a spectral peak in the spectral density profile; and determining a rate of change of temperature in the environment of the sensing optical fibre at that position from the one or more properties of the spectral peak.
A composition in the form of an injectable aqueous solution, the pH of which is from 3.5 to 4.4, comprising at least so-called regular A21G human insulin, at least one glucagon suppressor with prandial action, and a surfactant.
Lifting table capable of moving from a folded position to a unfolded position, and vice versa, comprising - a sub-frame comprising two first profiles (6 and 7) being parallel to each other and connected to each other by at least one crossbar element , - a frame intended to support a tray and comprising two second profiles being parallel to each other and to the first profiles of the said sub-frame , - means for the vertical movement of the said frame in relation to the sub-frame comprising two series of lifting arms (131, 132, 141 and 142) - connected to each other in a pivoting manner with respect to an axis (A - A'), - and comprising an end being mobile in translation on or in the said first profiles or under or in the said second profiles , and an end pivoting mounted moving in relation to the sub-frame or the frame , - means for driving the said vertical movement means , comprising an end fixed in a pivoting manner to the crossbar element and another end comprising first support means taking support and moving on the first pushing means (171 and 172) of the support means , said pushing means (171 and 172) being mounted pivoting according to the said axis (A-A') and being linked by a crossbar , to the top of the lifting arms (131 and 141) which are movable in translation under or in the said second profiles . - a sub-frame comprising two first profiles (6 and 7) being parallel to each other and connected to each other by at least one crossbar element , - a frame intended to support a tray and comprising two second profiles being parallel to each other and to the first profiles of the said sub-frame , - means for the vertical movement of the said frame in relation to the sub-frame comprising two series of lifting arms (131, 132, 141 and 142) - connected to each other in a pivoting manner with respect to an axis (A - A'), - and comprising an end being mobile in translation on or in the said first profiles or under or in the said second profiles , and an end pivoting mounted moving in relation to the sub-frame or the frame , - means for driving the said vertical movement means , comprising an end fixed in a pivoting manner to the crossbar element and another end comprising first support means taking support and moving on the first pushing means (171 and 172) of the support means , said pushing means (171 and 172) being mounted pivoting according to the said axis (A-A') and being linked by a crossbar , to the top of the lifting arms (131 and 141) which are movable in translation under or in the said second profiles .
Vehicle body node for connecting, in particular shell-shaped, vehicle body structures of a vehicle, the vehicle body node comprising: - a first connecting flange for a connection to a first vehicle body structure , - a second connecting flange for a connection to a second vehicle body structure , - a third connecting flange for a connection to a third vehicle body structure and - a connecting structure that connects the connecting flanges rigidly to one another and preferably forms a monolithic body with the connecting flanges , characterised in that the vehicle body node is produced in a generative manner by means of one of the following methods: - selective laser melting (SLM), - selective laser sintering (SLS), - direct laser melting (DMLS), - laser generating, - laser additive manufacturing method (LAM) or - laser powder build-up welding, and the connecting structure comprises a first material and at least one of the connecting flanges comprises a second material that is different to the first material, wherein the end of the vehicle body structure that is to be fastened to the connecting flange is embodied from a material that is identical to the second material and in particular is different to the first material. - a first connecting flange for a connection to a first vehicle body structure , - a second connecting flange for a connection to a second vehicle body structure , - a third connecting flange for a connection to a third vehicle body structure and - a connecting structure that connects the connecting flanges rigidly to one another and preferably forms a monolithic body with the connecting flanges , characterised in that - selective laser melting (SLM), - selective laser sintering (SLS), - direct laser melting (DMLS), - laser generating, - laser additive manufacturing method (LAM) or - laser powder build-up welding,
A system , comprising a security tag , having: an outer surface; an inner volume; and at least one of an Electronic Article Surveillance (EAS) element and a Radio Frequency Identification (RFID) element disposed within the inner volume; and a reversible adhesive disposed on at least a portion of the outer surface; wherein the reversible adhesive is releasable only in the presence of at least two signals at different frequencies; further comprising a source for generating an electromagnetic signal to release the reversible adhesive by supplying energy to the reversible adhesive so as to thermally affect the adhesive ; whereby the source is configured to vary the intensity of the generated electromagnetic signal in order to produce a greater or lesser thermal response from the reversible adhesive . an outer surface; an inner volume; and at least one of an Electronic Article Surveillance (EAS) element and a Radio Frequency Identification (RFID) element disposed within the inner volume; and a reversible adhesive disposed on at least a portion of the outer surface; wherein the reversible adhesive is releasable only in the presence of at least two signals at different frequencies; further comprising a source for generating an electromagnetic signal to release the reversible adhesive by supplying energy to the reversible adhesive so as to thermally affect the adhesive ; whereby the source is configured to vary the intensity of the generated electromagnetic signal in order to produce a greater or lesser thermal response from the reversible adhesive .
Holding device for attaching objects to a wall surface, comprising a base body , a fastening arrangement and a hood which can be locked to the base body and arches over the fastening arrangement , wherein the base body has a lower side facing the wall surface during assembly and an upper side facing away from the wall, as well as a central opening between the upper and lower sides, which defines a central axis perpendicular to the base body ; and the base body has a circular ring-shaped surface on the lower side , which is arranged symmetrically about the central axis ; on the inner and outer edge thereof a closed circumferential web , which projects from the lower side , is attached in each case; and at least two through-openings are provided in the annular surface between the upper side and the lower side ; characterized in that the web at the inner edge of the annular surface is designed higher, relative to the plane of the annular surface , than the web at the outer edge. the base body has a lower side facing the wall surface during assembly and an upper side facing away from the wall, as well as a central opening between the upper and lower sides, which defines a central axis perpendicular to the base body ; and the base body has a circular ring-shaped surface on the lower side , which is arranged symmetrically about the central axis ; on the inner and outer edge thereof a closed circumferential web , which projects from the lower side , is attached in each case; and at least two through-openings are provided in the annular surface between the upper side and the lower side ; characterized in that the web at the inner edge of the annular surface is designed higher, relative to the plane of the annular surface , than the web at the outer edge.
An image-forming apparatus, comprising: a photosensitive member; a scanning unit, configured to perform laser scanning on the photosensitive member at a non-constant linear speed along a main scanning direction to form an electrostatic latent image; and a controller, configured to make a scanning period T1 corresponding to a first pixel at a central region of the photosensitive member to be not equal to a scanning period T2 corresponding to a second pixel at a non-central region of the photosensitive member, wherein: the first pixel and the second pixel are each configured with a light-emitting time period and a non-light-emitting time period; characterized in that the light-emitting time period satisfies that a light-emitting time length of the light-emitting time period of the first pixel is same as a light-emitting time length of the light-emitting time period of the second pixel; and for printing a fixed page, a light-emitting power of the scanning unit is a preset fixed value. a photosensitive member; a scanning unit, configured to perform laser scanning on the photosensitive member at a non-constant linear speed along a main scanning direction to form an electrostatic latent image; and a controller, configured to make a scanning period T1 corresponding to a first pixel at a central region of the photosensitive member to be not equal to a scanning period T2 corresponding to a second pixel at a non-central region of the photosensitive member, wherein: the first pixel and the second pixel are each configured with a light-emitting time period and a non-light-emitting time period; characterized in that the light-emitting time period satisfies that a light-emitting time length of the light-emitting time period of the first pixel is same as a light-emitting time length of the light-emitting time period of the second pixel; and for printing a fixed page, a light-emitting power of the scanning unit is a preset fixed value. the first pixel and the second pixel are each configured with a light-emitting time period and a non-light-emitting time period; characterized in that the light-emitting time period satisfies that a light-emitting time length of the light-emitting time period of the first pixel is same as a light-emitting time length of the light-emitting time period of the second pixel; and for printing a fixed page, a light-emitting power of the scanning unit is a preset fixed value.
A rectilinear grinding machine for grinding a glass sheet , comprising a base ; feeding means 15 for feeding the sheet to be ground along a longitudinal rectilinear path and in contact with a horizontal virtual plane parallel to said rectilinear path , a row of grinding wheels for grinding a lateral surface of said glass sheet, and an assembly for machining an edge of the glass sheet comprising at least one rotary motor-driven grinding wheel ; said machining assembly being arranged below said virtual plane (P), and said motor-driven grinding wheel being rotated about an axis parallel to said virtual plane (P) and orthogonal to said path ; characterized in that said machining assembly further comprising a longitudinal abutment element for said glass sheet , which is raised with respect to said motor-driven grinding wheel , first actuator means for translating said grinding wheel and the abutment element in opposite directions parallel to said rectilinear path , and second electric actuator means for translating said grinding wheel and the abutment element in a substantially vertical direction orthogonal to said direction and to said virtual plane (P) ; driving and control means being provided for controlling said first and second actuator means and said means for feeding the glass sheet and comprising at least one numeric-control block for controlling at least said second actuator means .
A mounting system for supporting rotary machineries on a supporting structure of an off-shore installation, the system comprising: a base frame having an upper side for mounting the rotary machineries and a lower side; a set of at least four permanent supporting members forming a hyperstatic mounting arranged at the lower side of the base frame and adapted to be placed on the supporting structure ; wherein the permanent supporting members comprise resilient elements generating a reaction force when subject to a load and the stiffness of the permanent supporting members is from 2x10^7 N/m to 7x10^7 N/m; wherein the system has stiffness adapted to guarantee rotary machineries alignment, or to minimize the displacement between a point on the machineries and an absolute reference point located in a fixed position with respect to the supporting structure , or to minimize the dynamic behavior of the base frame ; wherein the permanent supporting members are configured to transfer to the base plate stresses and/or strains lower than allowable limits also in case of deformation of the supporting structures . a base frame having an upper side for mounting the rotary machineries and a lower side; a set of at least four permanent supporting members forming a hyperstatic mounting arranged at the lower side of the base frame and adapted to be placed on the supporting structure ; wherein the permanent supporting members comprise resilient elements generating a reaction force when subject to a load and the stiffness of the permanent supporting members is from 2x10^7 N/m to 7x10^7 N/m; wherein the system has stiffness adapted to guarantee rotary machineries alignment, or to minimize the displacement between a point on the machineries and an absolute reference point located in a fixed position with respect to the supporting structure , or to minimize the dynamic behavior of the base frame ; wherein the permanent supporting members are configured to transfer to the base plate stresses and/or strains lower than allowable limits also in case of deformation of the supporting structures .
Door assembly for a sealed enclosure, said enclosure comprising a wall having a wall portion delimiting at least one passage opening therein, said door assembly comprising a flange intended to be fixed to the wall portion delimiting the passage opening and a leaf mounted movably on the flange between a closed position in which the leaf seals the passage opening and an open position, the flange comprising two flange elements which are separate from one another and assembled together by assembly screws , one of the flange elements defining a ring inside the enclosure, which inner ring has a bearing surface arranged to bear on the inner surface of the wall portion , the other flange element defining a ring outside the enclosure, which outer ring has a bearing surface arranged to bear on the outer surface of the wall portion , the bearing of the bearing surface of the outer ring with the wall portion being achieved by means of pressure screws which are housed in holes provided in the outer ring and protrude from the bearing surface , the assembly screws being placed to be radially offset from the edge of the wall portion so as to connect the inner and outer rings together without passing through the wall portion interposed between said rings, the assembly screws and the pressure screws further constituting means for clamping at least one of the two flange elements against the wall portion .
A radiant heat protection device comprising: a radiant heat reflector having a reflective surface that reflects radiant heat; a coolant retainer disposed on a back surface of the reflective surface of the radiant heat reflector and capable of retaining coolant; and a coolant feed device configured to feed the coolant to the coolant retainer , wherein the coolant feed device includes a spray nozzle configured to spray the coolant on the coolant retainer . a radiant heat reflector having a reflective surface that reflects radiant heat; a coolant retainer disposed on a back surface of the reflective surface of the radiant heat reflector and capable of retaining coolant; and a coolant feed device configured to feed the coolant to the coolant retainer , wherein the coolant feed device includes a spray nozzle configured to spray the coolant on the coolant retainer .
A computer implemented method comprising: determining multiple indoor blocks into which an indoor space is spatially divided; and for each of the indoor blocks, extracting a set of features which describe characteristics of the indoor block and identifying the indoor block as being located at an address formed from the set of features; wherein the set of features which describe characteristics of the indoor block includes one or more statistical features which statistically describe characteristics of the indoor block and further includes one or more dynamic features which describe characteristics of the indoor block in substantially real-time, wherein a dynamic feature describes a characteristic of an indoor block as that characteristic changes over time, and furthermore includes one or more stable features which describe substantially static characteristics of the indoor block, which are characteristics that generally remain static over time, wherein the one or more statistical features include statistical information that is generated based on information collected from arbitrary wireless devices as their users move through the indoor space in their normal routine; and generating a map with the indoor blocks distinguished by the formed addresses. determining multiple indoor blocks into which an indoor space is spatially divided; and for each of the indoor blocks, extracting a set of features which describe characteristics of the indoor block and identifying the indoor block as being located at an address formed from the set of features; wherein the set of features which describe characteristics of the indoor block includes one or more statistical features which statistically describe characteristics of the indoor block and further includes one or more dynamic features which describe characteristics of the indoor block in substantially real-time, wherein a dynamic feature describes a characteristic of an indoor block as that characteristic changes over time, and furthermore includes one or more stable features which describe substantially static characteristics of the indoor block, which are characteristics that generally remain static over time, wherein the one or more statistical features include statistical information that is generated based on information collected from arbitrary wireless devices as their users move through the indoor space in their normal routine; and generating a map with the indoor blocks distinguished by the formed addresses. wireless devices as their users move through the indoor space in their normal routine; and generating a map with the indoor blocks distinguished by the formed addresses.
Use of a dual-phase stainless steel material for diffusion bonding, a metal structure before diffusion bonding having a dual-phase structure composed of at least two phases of a ferrite phase, a martensite phase, or an austenite phase, wherein the dual-phase structure has an average crystal grain size of 20 μm or less, ymax represented by the formula (a) mentioned below is 10 to 90, and creep elongation is 0.2% or more when a load of 1.0 MPa is applied at 1,000°C for 0.5 hour, the stainless steel material comprises, in % by mass: C: 0.2% or less, Si: 1.0% or less, Mn: 3.0% or less, P: 0.05% or less, S: 0.03% or less, Ni: 10.0% or less, Cr: 10.0 to 30.0%, N: 0.3% or less, Ti: 0.15% or less, and Al: 0.15% or less; optionally comprises, in % by mass: one or two or more elements of Nb: 4.0% or less, Mo: 0.01 to 4.0%, Cu: 0.01 to 3.0%, and V: 0.03 to 0.15%, optionally comprises, in % by mass: B: 0.0003 to 0.01%; wherein the remainder is Fe and inevitable impurities, wherein the total amount of Ti and Al is 0.15% or less: γ max = 420 C − 11.5 Si + 7 Mn + 23 Ni − 11.5 Cr − 12 Mo + 9 Cu − 49 Ti − 47 Nb − 52 Al + 470 N + 189 where an element symbol in the formula (a) mentioned above denotes the content (% by mass) of each element, and wherein an average crystal grain size is measured according to the method as specified in the description.