mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical composition comprising a macromolecular drug, a dissolution-enhancing and/or stabilizing agent, and an aqueous solvent, wherein: the macromolecular drug comprises a conjugate or complex comprising a drug and a biocompatible polymer connected through a hydrazone bond or an ester bond; the polymer is at least one selected from the group consisting of polyhydroxypropylmethacrylamide, HPMA, polymers and styrene-maleic acid copolymers, SMA; and the dissolution-enhancing and/or stabilizing agent is at least one selected from the group consisting of polyethylene glycol, mannitol, sodium bicarbonate, arginine, and glycine. the macromolecular drug comprises a conjugate or complex comprising a drug and a biocompatible polymer connected through a hydrazone bond or an ester bond; the polymer is at least one selected from the group consisting of polyhydroxypropylmethacrylamide, HPMA, polymers and styrene-maleic acid copolymers, SMA; and the dissolution-enhancing and/or stabilizing agent is at least one selected from the group consisting of polyethylene glycol, mannitol, sodium bicarbonate, arginine, and glycine.
An optical frequency domain imaging apparatus comprising: a swept source providing a radiation; a splitter structure (360a, 370) which separates the radiation into at least one first electro-magnetic radiation directed to a sample and at least one second electro-magnetic radiation directed to a reference arm, wherein a frequency of the radiation provided by the swept source is controlled thereby to vary over time; and at least one detector second arrangement configured to detect different interferences between at least one third radiation that is a return radiation from the sample which is based on the at least one first radiation and at least one fourth radiation that is a return radiation from the reference arm which is based on the at least one second radiation as a function of time; and a computer configured to generate an image, and determine information for measuring a motion within the sample based on a difference between amplitude values of the respective different interferences, characterized in that the apparatus is configured to: determine a Doppler velocity profile in the line of sight, determine a total speed profile using speckle decorrelation, subtract the Doppler profile from the speckle profile, and determine areas with turbulent flow based on the result of the subtraction. a swept source providing a radiation; a splitter structure (360a, 370) which separates the radiation into at least one first electro-magnetic radiation directed to a sample and at least one second electro-magnetic radiation directed to a reference arm, wherein a frequency of the radiation provided by the swept source is controlled thereby to vary over time; and at least one detector second arrangement configured to detect different interferences between at least one third radiation that is a return radiation from the sample which is based on the at least one first radiation and at least one fourth radiation that is a return radiation from the reference arm which is based on the at least one second radiation as a function of time; and a computer configured to generate an image, and determine information for measuring a motion within the sample based on a difference between amplitude values of the respective different interferences, characterized in that the apparatus is configured to: determine a Doppler velocity profile in the line of sight, determine a total speed profile using speckle decorrelation, subtract the Doppler profile from the speckle profile, and determine areas with turbulent flow based on the result of the subtraction. determine a Doppler velocity profile in the line of sight, determine a total speed profile using speckle decorrelation, subtract the Doppler profile from the speckle profile, and determine areas with turbulent flow based on the result of the subtraction.
Guide rail, which can be fixed to horizontally running rods, which are bent away at an angle in the end region (3a, 3b), of a grid-type side part of a baking oven, a dishwasher or similar appliances, said guide rail having a quick-action fixing device consisting of two retaining elements (4, 4', 5) which are fixed in the end regions of the guide rail, can be detachably fastened to a rod of a grid-type side part and each have a first retaining section (4a, 4b, 5a, 52, 53), which partially engages around a rod in the region of longitudinal extent thereof, and a second retaining section (4a, 4b, 5a, 52, 53), which partially engages around the rod in the angled end regions (3a, 3b) thereof, wherein the retaining section (52, 53) facing towards the rear bent-away end region is open in the direction of the rear side of the guide rail, such that the guide rail together with the quick-action fixing device can be pushed and fixed onto one of the rods, proceeding from the front side of the side grid, and the front retaining element (4, 4'), in the retaining section thereof which partially engages around a rod in the region of longitudinal extent thereof, has a leg lying below a rod and a resilient latching lug, which extends upwards from said leg and engages behind the rod around which the retaining element engages when the guide rail is in the mounted position, characterized in that the upper free end of the latching lug protrudes into an aperture of the leg of the front retaining element (4, 4') which overlaps the rod on the upper side, and yielding of the latching lug in the horizontal direction is prevented by the end being secured in a form-fitting manner in the aperture.
A method of controlling operation of a robotic cleaning device, comprising: detecting obstacles; characterized in that the method further comprises: identifying one or more sections to be cleaned where the robotic cleaning device is likely to move without being hindered by the detected obstacles; and controlling movement of the robotic cleaning device such that cleaning of the identified one or more sections to be cleaned is prioritized before sections of the surface where the robotic cleaning device is more likely to be hindered by the detected obstacles. detecting obstacles; characterized in that the method further comprises: identifying one or more sections to be cleaned where the robotic cleaning device is likely to move without being hindered by the detected obstacles; and controlling movement of the robotic cleaning device such that cleaning of the identified one or more sections to be cleaned is prioritized before sections of the surface where the robotic cleaning device is more likely to be hindered by the detected obstacles. identifying one or more sections to be cleaned where the robotic cleaning device is likely to move without being hindered by the detected obstacles; and controlling movement of the robotic cleaning device such that cleaning of the identified one or more sections to be cleaned is prioritized before sections of the surface where the robotic cleaning device is more likely to be hindered by the detected obstacles.
A secure communication interface unit (1, 13, 14), comprising: - a management interface; - a power supply controlled by the management interface; - a short-range communication module with a portable device (11, 12), controlled by the management interface; - a module for encrypting/decrypting the short range communication between the secure communication interface unit (1, 13, 14) and the portable device (11, 12), controlled by the management interface; - a long-range communication module, controlled by the management interface; - a module for encrypting/decrypting the long range communication, controlled by the management interface; - a module for computing the position of the secure communication interface unit (1, 13, 14), controlled by the management interface; and the secure communication interface unit (1, 13, 14) being further characterized in that it is adapted in such a way as to allow that: - the power supply is disabled and/or made definitively ineffective through the action of the management interface on the power supply from the elements collected by the position computing module, or that - at least one of the communication modules (4, 6) of the unit (1, 13, 14) is made ineffective from the elements collected by the position computing module. - a management interface; - a power supply controlled by the management interface; - a short-range communication module with a portable device (11, 12), controlled by the management interface; - a module for encrypting/decrypting the short range communication between the secure communication interface unit (1, 13, 14) and the portable device (11, 12), controlled by the management interface; - a long-range communication module, controlled by the management interface; - a module for encrypting/decrypting the long range communication, controlled by the management interface; - a module for computing the position of the secure communication interface unit (1, 13, 14), controlled by the management interface; and - the power supply is disabled and/or made definitively ineffective through the action of the management interface on the power supply from the elements collected by the position computing module, or that - at least one of the communication modules (4, 6) of the unit (1, 13, 14) is made ineffective from the elements collected by the position computing module.
A method of transmitting an uplink signal for a terminal configured to support multiple transmission time interval, TTI, lengths in a wireless communication system, comprising: mapping rank indicator, RI, information to elements on a column of an element matrix in a descending order of a row index from a maximum value of row indexes of the column; mapping acknowledgement/non-acknowledgement, ACK/NACK, information to elements on the column in a descending order of the row index from a maximum value of the row of the column among remaining elements except the elements of the column used for the RI information; and transmitting the uplink signal including the RI information and the ACK/NACK information through a Single Carrier Frequency Division Multiple Access, SC-FDMA, symbol with a TTI length among multiple TTI lengths, wherein the number of columns of the element matrix corresponds to the number of SC-FDMA symbols carrying the uplink signal in a subframe. mapping rank indicator, RI, information to elements on a column of an element matrix in a descending order of a row index from a maximum value of row indexes of the column; mapping acknowledgement/non-acknowledgement, ACK/NACK, information to elements on the column in a descending order of the row index from a maximum value of the row of the column among remaining elements except the elements of the column used for the RI information; and transmitting the uplink signal including the RI information and the ACK/NACK information through a Single Carrier Frequency Division Multiple Access, SC-FDMA, symbol with a TTI length among multiple TTI lengths, wherein the number of columns of the element matrix corresponds to the number of SC-FDMA symbols carrying the uplink signal in a subframe.
An electronic vapour provision system comprising: a vaporiser for vaporising liquid for inhalation by a user of the electronic vapour provision system; a power supply comprising a cell or battery for supplying power to the vaporiser; and a filter for filtering vaporised liquid prior to inhalation by the user of the electronic vapour provision system, wherein the filter can partially or completely remove from the vapour one or more aldehydes present in the vapour, wherein the filter has an amine functional group which reacts with aldehydes. a vaporiser for vaporising liquid for inhalation by a user of the electronic vapour provision system; a power supply comprising a cell or battery for supplying power to the vaporiser; and a filter for filtering vaporised liquid prior to inhalation by the user of the electronic vapour provision system, wherein the filter can partially or completely remove from the vapour one or more aldehydes present in the vapour, wherein the filter has an amine functional group which reacts with aldehydes.
A method for fabricating light emitting diode chips (170; 200), comprising: providing a plurality of LEDs (172; 202) on a substrate wafer (174; 204); depositing pedestals on said LEDs, each of said pedestals (186; 216, 224) in electrical contact with one of said LEDs (172; 202); forming a coating (188; 218) over said LEDs (172; 202), said coating (188; 218) burying at least some of said pedestals (186; 216, 224); planarizing said coating (188; 218) leaving at least some of said coating (188; 218) on said LEDs (172; 202) while exposing at least some of said buried pedestals (186; 216, 224); characterized in that the method further comprises: depositing a contact layer on a side of said substrate wafer (174; 204) opposite said plurality of LEDs (172; 202); and depositing a metal pad (190; 226) on said pedestals (186; 216, 224) and said planarized coating (188; 218) such that said LEDs (172; 202) are electrically connected in parallel and/or in series. providing a plurality of LEDs (172; 202) on a substrate wafer (174; 204); depositing pedestals on said LEDs, each of said pedestals (186; 216, 224) in electrical contact with one of said LEDs (172; 202); forming a coating (188; 218) over said LEDs (172; 202), said coating (188; 218) burying at least some of said pedestals (186; 216, 224); planarizing said coating (188; 218) leaving at least some of said coating (188; 218) on said LEDs (172; 202) while exposing at least some of said buried pedestals (186; 216, 224); characterized in that the method further comprises: depositing a contact layer on a side of said substrate wafer (174; 204) opposite said plurality of LEDs (172; 202); and depositing a metal pad (190; 226) on said pedestals (186; 216, 224) and said planarized coating (188; 218) such that said LEDs (172; 202) are electrically connected in parallel and/or in series. depositing a contact layer on a side of said substrate wafer (174; 204) opposite said plurality of LEDs (172; 202); and depositing a metal pad (190; 226) on said pedestals (186; 216, 224) and said planarized coating (188; 218) such that said LEDs (172; 202) are electrically connected in parallel and/or in series.
A mounting system for securing an electronic device including a battery receptacle to a mount, the mounting system comprising: a battery cover including a base operable to couple with a portion of the electronic device and at least partially cover the battery receptacle, and a cover mating element operable to couple with the base; and a reciprocal mating element associated with the mount, the reciprocal mating element being operable to interchangeably mate with the cover mating element to enable the electronic device to be secured to the mount, wherein the cover mating element includes protrusions and the reciprocal mating element includes grooves operable to at least partially receive the protrusions to enable the reciprocal mating element and battery cover to be slidably coupled, wherein the protrusions extend from opposed sides of the cover mating element and the cover mating element and protrusions present a T-shaped configuration where the base of the "T" is directly coupled to the base of the battery cover and the area between the base of the battery cover and the protrusions defines a recess in which at least a portion of the reciprocal mating element is received when slidably coupling between the reciprocal mating element and the battery cover. a battery cover including a base operable to couple with a portion of the electronic device and at least partially cover the battery receptacle, and a cover mating element operable to couple with the base; and a base operable to couple with a portion of the electronic device and at least partially cover the battery receptacle, and a cover mating element operable to couple with the base; and a reciprocal mating element associated with the mount, the reciprocal mating element being operable to interchangeably mate with the cover mating element to enable the electronic device to be secured to the mount, wherein the cover mating element includes protrusions and the reciprocal mating element includes grooves operable to at least partially receive the protrusions to enable the reciprocal mating element and battery cover to be slidably coupled, wherein the protrusions extend from opposed sides of the cover mating element and the cover mating element and protrusions present a T-shaped configuration where the base of the "T" is directly coupled to the base of the battery cover and the area between the base of the battery cover and the protrusions defines a recess in which at least a portion of the reciprocal mating element is received when slidably coupling between the reciprocal mating element and the battery cover.
Compound of formula: and any of its derivatives for use as medicinal drugs, wherein derivatives are selected from its salts; mixture of enantiomers; crystalline forms and any aforementioned compounds containing one or more isotopically enriched atoms.
Perforating tool for perforating a blister band, comprising a tool body, having a first side and a second side, which lie opposite each other, wherein the first side is the side facing the blister band to be worked, wherein the tool body has a plurality of recesses, which extend from the first side into the tool body, and into which a plurality of cutter blades are received, wherein each one of the plurality of cutter blades has a cutting edge, which protrudes beyond the first side of the tool body, characterised in that in the region of the recesses, channels are formed extending from the first side into the tool body, which taper towards the second side of the tool body, at least in one section, and in each of which a clamping element is arranged, which receives one of the plurality of cutter blades in a clamping fashion, and that a plurality of actuating elements are provided, each of which interacts with one of the clamping elements in such a way that its actuation moves the clamping element in the direction of the tapering of the channel, whereby the clamping element clamps the corresponding cutter blade.
A stent graft (10, 30) expandable from a radially-collapsed configuration to a radially-expanded position, the stent graft (10, 30) comprising: a main body (14, 32) extending along a main longitudinal axis and having a proximal end and a distal end; a first leg (16, 34) extending from the distal end of the main body (14, 32); a second leg (18, 36) extending from the distal end of the main body (14, 32); and a plurality of stitches coupling the main body (14, 32) to the first leg (16, 34), the plurality of stitches forming a stitch path that extends in a direction oblique to the main longitudinal axis of the main body (14, 32) when the stent graft (10, 30) is in a preinstalled configuration prior to insertion into a body of a patient; wherein each of the first and second legs (16, 34, 18, 36) extend along respective axes that are parallel to the main longitudinal axis when the stent graft (10, 30) is in the preinstalled configuration prior to insertion into a body of a patient. a main body (14, 32) extending along a main longitudinal axis and having a proximal end and a distal end; a first leg (16, 34) extending from the distal end of the main body (14, 32); a second leg (18, 36) extending from the distal end of the main body (14, 32); and a plurality of stitches coupling the main body (14, 32) to the first leg (16, 34), the plurality of stitches forming a stitch path that extends in a direction oblique to the main longitudinal axis of the main body (14, 32) when the stent graft (10, 30) is in a preinstalled configuration prior to insertion into a body of a patient; wherein each of the first and second legs (16, 34, 18, 36) extend along respective axes that are parallel to the main longitudinal axis when the stent graft (10, 30) is in the preinstalled configuration prior to insertion into a body of a patient.
A method for transitioning a drive mode of a vehicle from an assisted drive mode to an automated drive mode, comprising: - providing an assisted drive mode configured to support a driver controlling the vehicle at a medium support level; - receiving an activation request for activating an automated drive mode configured to control a driving of the vehicle autonomously; - reducing a support level to a safe assisted drive mode (ADAS) configured to support the driver at a low support level, the reduction of the support level from the assisted drive mode to the safe assisted drive mode (ADAS) comprising a first kinematic feedback; and if the activation request is successful, increasing the support level from the safe assisted drive mode (ADAS) to the automated drive mode, the increase of the support level from the safe assisted drive mode (ADAS) to the automated drive mode comprising a second kinematic feedback to the driver; or if the activation request fails, maintaining the safe assisted drive mode (ADAS). - providing an assisted drive mode configured to support a driver controlling the vehicle at a medium support level; - receiving an activation request for activating an automated drive mode configured to control a driving of the vehicle autonomously; - reducing a support level to a safe assisted drive mode (ADAS) configured to support the driver at a low support level, the reduction of the support level from the assisted drive mode to the safe assisted drive mode (ADAS) comprising a first kinematic feedback; and if the activation request is successful, increasing the support level from the safe assisted drive mode (ADAS) to the automated drive mode, the increase of the support level from the safe assisted drive mode (ADAS) to the automated drive mode comprising a second kinematic feedback to the driver; or if the activation request fails, maintaining the safe assisted drive mode (ADAS).
A winter tire comprising a tread, the tread having: a plurality of grooves formed on a surface thereof; land portions (17A, 17B, 17C) defined by the grooves; and studs embedded in the land portions, wherein the tread comprises a surface layer disposed on a tire surface side thereof and an inner layer disposed on a radially inner side of the surface layer, wherein a hardness of a rubber constituting the inner layer is higher than a hardness of a rubber constituting the surface layer, and characterized in that: the tread has sipes formed in the land portions; the surface layer in a tread center region is formed thicker than the surface layer in tread shoulder regions, and the studs are each embedded in the land portions in the tread shoulder regions only such that one end thereof protrudes from a surface of the surface layer and the other end thereof reaches into the interior of the inner layer. a plurality of grooves formed on a surface thereof; land portions (17A, 17B, 17C) defined by the grooves; and studs embedded in the land portions, wherein the tread comprises a surface layer disposed on a tire surface side thereof and an inner layer disposed on a radially inner side of the surface layer, wherein a hardness of a rubber constituting the inner layer is higher than a hardness of a rubber constituting the surface layer, and characterized in that: the tread has sipes formed in the land portions; the surface layer in a tread center region is formed thicker than the surface layer in tread shoulder regions, and the studs are each embedded in the land portions in the tread shoulder regions only such that one end thereof protrudes from a surface of the surface layer and the other end thereof reaches into the interior of the inner layer. the tread has sipes formed in the land portions; the surface layer in a tread center region is formed thicker than the surface layer in tread shoulder regions, and the studs are each embedded in the land portions in the tread shoulder regions only such that one end thereof protrudes from a surface of the surface layer and the other end thereof reaches into the interior of the inner layer.