mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of crystalline form IV of posaconazole comprising the steps of: (a) providing a suspension or dispersion of: (i) posaconazole, wherein posaconazole is selected from crystalline form III of posaconazole and (ii) methanol and (b) slurrying the suspension or dispersion at a temperature of 20-30 °C; (c) adding water to the suspension or dispersion, (d) adding posaconazole form IV seed crystals to the suspension or dispersion, (e) slurrying the suspension or dispersion at 40-60 °C until the solvent-mediated solid state transformation to posaconazole form IV is complete, (f) cooling the suspension or dispersion to a temperature of 20-30 °C, (g) isolating form IV of posaconazole and (h) drying form IV of posaconazole. (a) providing a suspension or dispersion of: (i) posaconazole, wherein posaconazole is selected from crystalline form III of posaconazole and (ii) methanol and (i) posaconazole, wherein posaconazole is selected from crystalline form III of posaconazole and (ii) methanol and (b) slurrying the suspension or dispersion at a temperature of 20-30 °C; (c) adding water to the suspension or dispersion, (d) adding posaconazole form IV seed crystals to the suspension or dispersion, (e) slurrying the suspension or dispersion at 40-60 °C until the solvent-mediated solid state transformation to posaconazole form IV is complete, (f) cooling the suspension or dispersion to a temperature of 20-30 °C, (g) isolating form IV of posaconazole and (h) drying form IV of posaconazole.
A build material container comprising: an outlet through an outer surface of the build material container to enable build material to be extracted from the build material container; and an inlet through an outer surface of the build material container to enable a forced air flow to enter into the build material container in use, the inlet having a longitudinal axis, characterised by, a structure having a first element having an outer face and a first aperture and a second element having an innerface and a second aperture, the apertures to define an air flow path therebetween, wherein the first aperture is axially offset from the second aperture along an axis which is substantially parallel to the longitudinal axis of the inlet to disrupt an airflow entering into the build material container in use. an outlet through an outer surface of the build material container to enable build material to be extracted from the build material container; and an inlet through an outer surface of the build material container to enable a forced air flow to enter into the build material container in use, the inlet having a longitudinal axis, characterised by, a structure having a first element having an outer face and a first aperture and a second element having an innerface and a second aperture, the apertures to define an air flow path therebetween, wherein the first aperture is axially offset from the second aperture along an axis which is substantially parallel to the longitudinal axis of the inlet to disrupt an airflow entering into the build material container in use.
A control method of a cooling system equipped with a shutter for controlling the flow of coolant, including the following steps: - measurement of actual parameters of the temperature control, including in particular a static deviation and a response time, - comparison of the actual parameters with theoretical parameters, characterized in that - if a difference between the actual parameters and the theoretical parameters is found, an operation then consists in modifying the position of the shutter according to a polynomial function of the second degree where the volume flow rate is proportional to the square of the position of the shutter. - measurement of actual parameters of the temperature control, including in particular a static deviation and a response time, - comparison of the actual parameters with theoretical parameters, - if a difference between the actual parameters and the theoretical parameters is found, an operation then consists in modifying the position of the shutter according to a polynomial function of the second degree where the volume flow rate is proportional to the square of the position of the shutter.
A blade comprising: - a structure with aerodynamic profile comprising two opposite skins (21, 22) obtained by three-dimensional weaving of a fibrous reinforcement densified by a matrix, - a longeron comprising a fibrous reinforcement obtained by three-dimensional weaving and densified by a matrix, said longeron comprising a first part extending outside said structure with aerodynamic profile and designed to be connected to a drive hub in rotation of the blade and a second part arranged inside the structure with aerodynamic profile between the two skins (21, 22), the second part of said longeron comprising one of two portions each having a thickness substantially similar to that of the skins (21, 22) of the structure with aerodynamic profile, and the fibrous reinforcement of the second part of the longeron having the same weaving armour as that of the reinforcement of the skins (21, 22) of the structure with aerodynamic profile. - a structure with aerodynamic profile comprising two opposite skins (21, 22) obtained by three-dimensional weaving of a fibrous reinforcement densified by a matrix, - a longeron comprising a fibrous reinforcement obtained by three-dimensional weaving and densified by a matrix, said longeron comprising a first part extending outside said structure with aerodynamic profile and designed to be connected to a drive hub in rotation of the blade and a second part arranged inside the structure with aerodynamic profile between the two skins (21, 22), the second part of said longeron comprising one of two portions each having a thickness substantially similar to that of the skins (21, 22) of the structure with aerodynamic profile, and the fibrous reinforcement of the second part of the longeron having the same weaving armour as that of the reinforcement of the skins (21, 22) of the structure with aerodynamic profile.
A method for producing an optoelectronic component comprising the steps: A) Providing a radiation-emitting device, B) Heating the device to a temperature range of 80°C to 180°C, C) Applying a liquid lens material on the preheated device at this temperature in a beam path of the device, wherein, with crosslinking of the lens material, a lens shaped onto the device is formed. A) Providing a radiation-emitting device, B) Heating the device to a temperature range of 80°C to 180°C, C) Applying a liquid lens material on the preheated device at this temperature in a beam path of the device, wherein, with crosslinking of the lens material, a lens shaped onto the device is formed.
A dual-chamber package system for absorbent articles, comprising: a retaining chamber for vertically retaining a plurality of absorbent articles, a dispensing chamber positioned underneath the retaining chamber, wherein the dispensing chamber has a front side opening, and a divider dividing the retaining chamber and the dispensing chamber, wherein at least a portion of the divider is moveable so that a bottommost absorbent article, of the plurality of absorbent articles vertically retained in the retaining chamber, is dispensable from the front side opening of the dispensing chamber, characterized in that the divider is comprised of a fixed portion, a movable portion and a hinge line positioned therebetween, wherein the movable portion is the at least portion of the divider that is moveable; wherein the fixed portion of the divider has a 1ength which is along a direction on the movable portion plane orthogonal to the hinge line; wherein the movable portion of the divider has a 1ength which is along a direction on the movable portion plane orthogonal to the hinge line; and wherein the ratio of the length of the movable portion to the length of the fixed portion is from 1: 1 to 1:4. a retaining chamber for vertically retaining a plurality of absorbent articles, a dispensing chamber positioned underneath the retaining chamber, wherein the dispensing chamber has a front side opening, and a divider dividing the retaining chamber and the dispensing chamber, wherein at least a portion of the divider is moveable so that a bottommost absorbent article, of the plurality of absorbent articles vertically retained in the retaining chamber, is dispensable from the front side opening of the dispensing chamber, characterized in that the divider is comprised of a fixed portion, a movable portion and a hinge line positioned therebetween, wherein the movable portion is the at least portion of the divider that is moveable; wherein the fixed portion of the divider has a 1ength which is along a direction on the movable portion plane orthogonal to the hinge line; wherein the movable portion of the divider has a 1ength which is along a direction on the movable portion plane orthogonal to the hinge line; and wherein the ratio of the length of the movable portion to the length of the fixed portion is from 1: 1 to 1:4.
A printing system, comprising: an inkjet print head (230, 231, 232, 233) to form a printed image on a media substrate; an ink reservoir (240, 241, 242, 243) in fluid communication with the inkjet print head, the ink reservoir comprising a plasma curable ink, wherein the plasma curable ink is substantially devoid of photoinitiators and comprises a polymerizable component capable of polymerizing upon exposure to free radicals; and a plasma generator positioned with respect to the inkjet print head to treat the printed image after application to the media substrate. an inkjet print head (230, 231, 232, 233) to form a printed image on a media substrate; an ink reservoir (240, 241, 242, 243) in fluid communication with the inkjet print head, the ink reservoir comprising a plasma curable ink, wherein the plasma curable ink is substantially devoid of photoinitiators and comprises a polymerizable component capable of polymerizing upon exposure to free radicals; and a plasma generator positioned with respect to the inkjet print head to treat the printed image after application to the media substrate.
A method of manufacturing a stretchable sheet that stretches and contracts, the method comprising: interposing a resilient film that can stretch and contract in both a machine direction and a direction orthogonal to the machine direction, in a stretched state in the machine direction between a first sheet layer having no elasticity and a second sheet layer having no elasticity; and joining the first sheet layer and the second sheet layer together with a number of joints directly or through the resilient film by melting the resilient film with ultrasonic fusion energy applied by a thermal fusion device from an outside of the first sheet layer and an outside of the second sheet layer to a number of joint regions with intervals, in a state where the resilient film has been interposed in the stretched state between the first sheet layer and the second sheet layer, during the interposing, wherein a through-hole having an annular shape around each of the joint is formed through at least a boundary portion in a direction of the stretching between the resilient film and each of the joints when the resilient film is melted, with the first sheet layer and the second sheet layer retained, no hole being formed over the entirety of each of the joint regions, during the joining. interposing a resilient film that can stretch and contract in both a machine direction and a direction orthogonal to the machine direction, in a stretched state in the machine direction between a first sheet layer having no elasticity and a second sheet layer having no elasticity; and joining the first sheet layer and the second sheet layer together with a number of joints directly or through the resilient film by melting the resilient film with ultrasonic fusion energy applied by a thermal fusion device from an outside of the first sheet layer and an outside of the second sheet layer to a number of joint regions with intervals, in a state where the resilient film has been interposed in the stretched state between the first sheet layer and the second sheet layer, during the interposing, wherein a through-hole having an annular shape around each of the joint is formed through at least a boundary portion in a direction of the stretching between the resilient film and each of the joints when the resilient film is melted, with the first sheet layer and the second sheet layer retained, no hole being formed over the entirety of each of the joint regions, during the joining.
A method of cooling an array of battery cells within a chamber in a housing (3a, 3b), the battery cells being electrically connected via a busbar having at least one terminal tab (60, 61) for connection to an electrical terminal in the housing, the method comprising the steps of: supplying coolant through an opening in the housing into the chamber; and diverting at least a part of the coolant flow from its inlet flow path due to impingement of the flow upon a body portion of the terminal tab, the body portion being angled relative to an inlet flow axis of the coolant flow. supplying coolant through an opening in the housing into the chamber; and diverting at least a part of the coolant flow from its inlet flow path due to impingement of the flow upon a body portion of the terminal tab, the body portion being angled relative to an inlet flow axis of the coolant flow.
A user authentication method for a remote control apparatus comprising a controller and a plurality of controlled devices each controlled by the controller, comprising: displaying a list of the plurality of controlled devices; selecting a specific controlled device among the displayed list of the plurality of controlled devices; performing a first user authentication process to the selected controlled device in said controller by comparing a user-input authentication information with a first user authentication information stored in the controller for the selected controlled device, wherein, if said first user authentication process is successful, a second user authentication process is executed and wherein said second user authentication process comprises: transmitting authentication data stored in the controller for the selected controlled device from the controller to the selected controlled device, said authentication data comprising biometric information; performing the second user authentication process based on the authentication data by comparing in the selected controlled device the authentication data received from the controller with authentication data stored in the selected controlled device, and transmitting a result to the controller; transmitting control data from the controller to the selected controlled device, if the second user authentication process is successful; operating the selected controlled device in accordance with the control data. transmitting authentication data stored in the controller for the selected controlled device from the controller to the selected controlled device, said authentication data comprising biometric information; performing the second user authentication process based on the authentication data by comparing in the selected controlled device the authentication data received from the controller with authentication data stored in the selected controlled device, and transmitting a result to the controller; transmitting control data from the controller to the selected controlled device, if the second user authentication process is successful; operating the selected controlled device in accordance with the control data.
A positive active material for a rechargeable lithium battery, comprising: a core comprising a compound capable of intercalating and deintercalating lithium; and a lithium metal phosphate on the surface of the core, wherein the lithium metal phosphate is different from the compound capable of intercalating and deintercalating lithium, characterized in that the lithium metal phosphate is represented by Chemical Formula 1: Chemical Formula 1 Li 1+(x+y) A x B y Ti 2-(x+y) (PO 4) 3 wherein in Chemical Formula 1, A is Zr, Nb, Mo, Ce, Cr, Ge, Ru, Se, Sn, Ta, Tb, V, W, or a combination thereof, B is Mg, Zn, Cu, Ca, Sr, Ba, Cd, Fe, Mn, Nd, Yb, or a combination thereof, 0<x<1, and 0<y<1. a core comprising a compound capable of intercalating and deintercalating lithium; and a lithium metal phosphate on the surface of the core, wherein the lithium metal phosphate is different from the compound capable of intercalating and deintercalating lithium, characterized in that the lithium metal phosphate is represented by Chemical Formula 1: Chemical Formula 1 Li 1+(x+y) A x B y Ti 2-(x+y) (PO 4) 3 wherein in Chemical Formula 1, A is Zr, Nb, Mo, Ce, Cr, Ge, Ru, Se, Sn, Ta, Tb, V, W, or a combination thereof, B is Mg, Zn, Cu, Ca, Sr, Ba, Cd, Fe, Mn, Nd, Yb, or a combination thereof, 0<x<1, and 0<y<1.
An imaging system for a patient comprising: an imaging probe comprising: an elongate shaft for insertion into the patient and comprising a proximal end, a distal portion, and a lumen extending between the proximal end and the distal portion; a rotatable optical core comprising a proximal end and a distal end, the rotatable optical core configured to optically and mechanically connect with a console; a probe connector positioned on the elongate shaft proximal end and surrounding at least a portion of the rotatable optical core; an optical assembly positioned in the elongate shaft distal portion and proximate the rotatable optical core distal end, the optical assembly configured to direct light to tissue and collect reflected light from the tissue wherein the optical assembly comprises a single unitary lens having a reflecting surface; and a shear-thinning fluid in the distal portion of the elongate shaft. an elongate shaft for insertion into the patient and comprising a proximal end, a distal portion, and a lumen extending between the proximal end and the distal portion; a rotatable optical core comprising a proximal end and a distal end, the rotatable optical core configured to optically and mechanically connect with a console; a probe connector positioned on the elongate shaft proximal end and surrounding at least a portion of the rotatable optical core; an optical assembly positioned in the elongate shaft distal portion and proximate the rotatable optical core distal end, the optical assembly configured to direct light to tissue and collect reflected light from the tissue wherein the optical assembly comprises a single unitary lens having a reflecting surface; and a shear-thinning fluid in the distal portion of the elongate shaft.
A method performed by an attack detection function, for detection of a distributed attack in a wireless network to which multiple wireless devices are connected, wherein the wireless devices include Internet of Things, loT, sensors, the method comprising: - detecting that characteristics of a traffic flow from each of the wireless devices fulfil a first predefined threshold condition related to abnormal traffic originating from the wireless devices, - in response to said detecting, identifying changes of the traffic flows from the wireless devices, wherein said identifying is performed based on statistics on previous traffic originating from the wireless devices, as obtained from a statistics collecting node which is connected to one or more base stations serving the wireless devices, and - determining whether the wireless devices are used in the distributed attack based on whether said identified changes of the traffic flows exceed second thresholds. - detecting that characteristics of a traffic flow from each of the wireless devices fulfil a first predefined threshold condition related to abnormal traffic originating from the wireless devices, - in response to said detecting, identifying changes of the traffic flows from the wireless devices, wherein said identifying is performed based on statistics on previous traffic originating from the wireless devices, as obtained from a statistics collecting node which is connected to one or more base stations serving the wireless devices, and - determining whether the wireless devices are used in the distributed attack based on whether said identified changes of the traffic flows exceed second thresholds.
Tripped-travel actuator including a body harboring a mobile assembly comprising a piston and a rod protruding at one end of said body, as well as means for propelling said mobile assembly in response to a triggering command, characterized in that it includes an element (29, 49) for absorbing mechanical energy, of the type with definitive mechanical deformation or definitive mechanical degradation, laid out for braking said mobile assembly over at least one portion of its travel, the deformation of said energy absorption element being caused by the actual displacement of said mobile element and the layout being such that the body and the piston remain free relatively to each other after deformation of the absorption element (29, 49) so as to allow a caused return of said piston to its initial position.
Use of a peptide according to SEQ ID No. 1 and/or a peptide according to SEQ ID No. 2 for manufacturing a medicinal product for treating anxiety, sleep disorders and epilepsy.
A method for acquiring augmented reality, AR, information or virtual reality, VR, information, wherein the method is performed by a mobile terminal comprising at least one radar sensor and a camera, the method comprising: transmitting, by the at least one radar sensor during image collection of the camera of the mobile terminal, a radar wave and receiving an echo formed based on the radar wave; determining, according to a transmitting parameter of the radar wave and an echo parameter of the echo, spatial structure information of one of at least one object contained in a collected image; and obtaining AR information or VR information of the object according to the spatial structure information and the collected image; wherein the spatial structure information is coordinate information including different points on the object, and the coordinate information is coordinate information in a space coordinate system with a reference point on the mobile terminal as an origin. transmitting, by the at least one radar sensor during image collection of the camera of the mobile terminal, a radar wave and receiving an echo formed based on the radar wave; determining, according to a transmitting parameter of the radar wave and an echo parameter of the echo, spatial structure information of one of at least one object contained in a collected image; and obtaining AR information or VR information of the object according to the spatial structure information and the collected image; wherein the spatial structure information is coordinate information including different points on the object, and the coordinate information is coordinate information in a space coordinate system with a reference point on the mobile terminal as an origin.