mhurhangee/ep-ind-claims huggingface dataset:
A vaginal ring delivery device for an active pharmaceutical ingredient comprising a nondegradable biocompatible ring matrix; polymer encapsulated active pharmaceutical ingredients dispersed as particles within the matrix of the ring; and one or more active pharmaceutical ingredients separately dispersed in the ring matrix, wherein said polymer encapsulation material encapsulates the one or more active pharmaceutical ingredients via a method selected from a melt-chill process, a solvent emulsification process, or spray-drying. a nondegradable biocompatible ring matrix; polymer encapsulated active pharmaceutical ingredients dispersed as particles within the matrix of the ring; and one or more active pharmaceutical ingredients separately dispersed in the ring matrix,
A relaxation apparatus comprising a body-supporting unit for supporting a user's body, a rocking unit for rocking the body-supporting unit in at least one direction and a controller for controlling the rocking unit to rock the body-supporting unit, characterized in that the apparatus further comprises: a manipulator operated by the user and provided with a plurality of operation switches that give instructions to the controller based on manipulation performed by the user; and the controller controls the rocking unit to reduce the rocking speed of the body-supporting unit when it is determined that the user operates at least one of the operation switches during the rocking motion. a manipulator operated by the user and provided with a plurality of operation switches that give instructions to the controller based on manipulation performed by the user; and the controller controls the rocking unit to reduce the rocking speed of the body-supporting unit when it is determined that the user operates at least one of the operation switches during the rocking motion.
An ingot, having a volume between 0.15 m 3 and 0.80 m 3 and a surface area to volume ratio between 10 m -1 and 18 m -1, made of at least one metal, having longitudinal faces extending between two end faces (14a, 14b) and comprising at least one hole extending from one of said longitudinal faces to a second longitudinal face, the maximum distance between any point of the hole periphery, to the closest longitudinal face, being noted MaxL, said at least one hole being configured such that said maximum distance MaxL is smaller than the minimal distance, being noted MinE, between any point of the hole periphery and the closest end face (14a, 14b).
A machining error calculation apparatus, for calculating a machining error for an interrupted cutting, said interrupted cutting using a rotation tool which is provided with one or more of cutting edge portions (5a, 5b) in the circumferential direction on the peripheral circumference thereof, being carried out in such a way that the rotation tool is rotated around its axis while moved relatively with respect to a workpiece, comprising: a tool center displacement amount calculation unit configured to calculate a displacement amount of a rotation center of the rotation tool according to the cutting resistance force (Fp, Ft, Ff) in the rotation tool, in the case that the cutting resistance force generated in the rotation tool during said interrupted cutting is varied; a relative tool-edge position calculation unit configured to calculate a relative tool-edge position of the cutting-edge portion (5a, 5b) with respect to the rotation center of the rotation tool; characterized by an absolute tool-edge position calculation unit configured to calculate an absolute tool-edge position of the cutting-edge portion (5a, 5b) with respect to the workpiece, based on the displacement amount of the rotation center of the rotation tool and the relative tool-edge position; a machined shape calculation unit configured to calculate the machined shape of the workpiece through transferring the absolute tool-edge position on the workpiece; and a machining error calculation unit configured to calculate a machining error of the workpiece based on a difference between the calculated machined shape of the workpiece and an objective shape of the workpiece. a tool center displacement amount calculation unit configured to calculate a displacement amount of a rotation center of the rotation tool according to the cutting resistance force (Fp, Ft, Ff) in the rotation tool, in the case that the cutting resistance force generated in the rotation tool during said interrupted cutting is varied; a relative tool-edge position calculation unit configured to calculate a relative tool-edge position of the cutting-edge portion (5a, 5b) with respect to the rotation center of the rotation tool; characterized by an absolute tool-edge position calculation unit configured to calculate an absolute tool-edge position of the cutting-edge portion (5a, 5b) with respect to the workpiece, based on the displacement amount of the rotation center of the rotation tool and the relative tool-edge position; a machined shape calculation unit configured to calculate the machined shape of the workpiece through transferring the absolute tool-edge position on the workpiece; and a machining error calculation unit configured to calculate a machining error of the workpiece based on a difference between the calculated machined shape of the workpiece and an objective shape of the workpiece.
A method for determining location history of a mobile device, comprising the steps of: determining, by a processor, a plurality of states corresponding to a plurality of reachable road segments (202, 204, 206, 208) associated with a road network based on one or more initial estimated locations of the mobile device; generating, by a processor, a mobility model defining transition probabilities between the determined plurality of states; receiving, by a processor, time series network data associated with the mobile device from a network data source, wherein the time series network data is associated with a given period of time and processing, by a processor, the time series network data using the generated mobility model to estimate an actual route travelled by the mobile device along a portion of the road network during the given period of time; characterised in that: the time series network data comprises information relating to at least a plurality of signal strength measurements, a plurality of propagation path time measurements and information relating to transmission error rates associated with the mobile device; and the processing comprises: determining a set of reachable states, and selecting a subset of the reachable states based on, for each reachable state, a first weighting factor based on transition probabilities in the mobility model and a second weighting factor based on the time series network data. determining, by a processor, a plurality of states corresponding to a plurality of reachable road segments (202, 204, 206, 208) associated with a road network based on one or more initial estimated locations of the mobile device; generating, by a processor, a mobility model defining transition probabilities between the determined plurality of states; receiving, by a processor, time series network data associated with the mobile device from a network data source, wherein the time series network data is associated with a given period of time and processing, by a processor, the time series network data using the generated mobility model to estimate an actual route travelled by the mobile device along a portion of the road network during the given period of time; the time series network data comprises information relating to at least a plurality of signal strength measurements, a plurality of propagation path time measurements and information relating to transmission error rates associated with the mobile device; and the processing comprises: determining a set of reachable states, and selecting a subset of the reachable states based on, for each reachable state, a first weighting factor based on transition probabilities in the mobility model and a second weighting factor based on the time series network data.
Method for operating an electronic consumption-data acquisition device, wherein the consumption data are transferred wirelessly to a receiver in the form of a mobile data collector or static data collector by way of a first radio system, and wherein for operating the consumption-data acquisition device there is provision for a first operating mode, in which the consumption data are transferred by way of the first radio system, and there is provision for a second operating mode, which has a lower rate of data transmission and/or readiness to receive compared with the first operating mode, and it is possible to switch between the first and second operating modes (11 and 12 respectively), wherein the switchover for the first and second operating modes (11 and 12 respectively) is performed by means of a second radio system, which comprises a communication unit that is in contact with a switching centre of an energy supplier and that transmits control signals comprising switchover signals (21, 22) to the consumption-data acquisition device for the switchover between the first and second operating modes (11 and 12 respectively), and wherein the second radio system has a greater range compared with the first radio system. wherein the consumption data are transferred wirelessly to a receiver in the form of a mobile data collector or static data collector by way of a first radio system, and wherein for operating the consumption-data acquisition device there is provision for a first operating mode, in which the consumption data are transferred by way of the first radio system, and there is provision for a second operating mode, which has a lower rate of data transmission and/or readiness to receive compared with the first operating mode, and it is possible to switch between the first and second operating modes (11 and 12 respectively), wherein the switchover for the first and second operating modes (11 and 12 respectively) is performed by means of a second radio system, which comprises a communication unit that is in contact with a switching centre of an energy supplier and that transmits control signals comprising switchover signals (21, 22) to the consumption-data acquisition device for the switchover between the first and second operating modes (11 and 12 respectively), and wherein the second radio system has a greater range compared with the first radio system.
A coating color for paper or cardboard, characterized in that it comprises, expressed as % by weight of each of its constituents with respect to its total weight: - from 20% to 50% of water, - from 50% to 75% of at least one inorganic or organic material, - from 5% to 20% of a binder composed of at least one dextrin exhibiting an amylopectin content of greater than 95%, - from 0% to 5% of at least one additive chosen from an optical brightener, a rheology modifier, a thickener, an antifoaming agent, a dispersant, a pH-regulating agent, a colorant, a lubricant, a crosslinking agent. - from 20% to 50% of water, - from 50% to 75% of at least one inorganic or organic material, - from 5% to 20% of a binder composed of at least one dextrin exhibiting an amylopectin content of greater than 95%, - from 0% to 5% of at least one additive chosen from an optical brightener, a rheology modifier, a thickener, an antifoaming agent, a dispersant, a pH-regulating agent, a colorant, a lubricant, a crosslinking agent.
Remote control for operation assistance systems consisting of a multiple-part housing for receiving at least one electronic unit and at least one operating element connected to the electronic unit, wherein the housing comprises at least one upper and lower housing part (3.1, 3.2) which are connected to each other in a hermetically sealed manner to form an autoclavable housing, characterised in that the lower housing part (3.2) comprises at least one recess (3.4) for accommodating a battery unit and at least one battery ejection bore (3.5), for the simplified removal of the battery unit from the recess (3.4), which is connected to the recess (3.4), and in that the recess (3.4) comprises a recess opening (3.4') provided in a first housing edge section and the battery ejection bore (3.5) comprises a first bore opening (3.5') provided in a second housing edge section (3") and a second bore opening (3.5") in the base area (3.4") of the recess (3.4), wherein the recess opening (3.4') and the provided first boring opening (3.5') are arranged opposite each other.
A method for integrated room management in a building management system, the method performed by a data processing system and comprising: determining a solar heat gain coefficient (SHGC) for a room in a building, based on the geographic location of the room, at a plurality of time intervals; determining predicted room temperatures for the room at the plurality of time intervals based on the SHGC and a plurality of window blinds tilt angles; determining illumination heat and illumination energy for the room, at each window blinds tilt angle and at each time interval, based on an exterior illumination level for each window blinds tilt angle, artificial lighting energy consumed, and artificial lighting heat produced to bring the room to a predetermined illumination level; determining climate energy, at each of the time intervals, required to maintain the room at a predetermined temperature based on the predicted room temperatures and the illumination heat at each of the time intervals; determining a total room energy at each of the time intervals as a function of the window blinds tilt angles based on the climate energy, illumination energy, and predicted room temperatures; determining, from the total room energy, an optimal blind tilt angle at each of the time intervals, wherein the optimal blind tilt angle minimizes the total room energy at each of the time intervals; and controlling the tilt angles of window blinds in the room at each of the time intervals according to the optimal blind tilt angle, unless there is an override condition. determining a solar heat gain coefficient (SHGC) for a room in a building, based on the geographic location of the room, at a plurality of time intervals; determining predicted room temperatures for the room at the plurality of time intervals based on the SHGC and a plurality of window blinds tilt angles; determining illumination heat and illumination energy for the room, at each window blinds tilt angle and at each time interval, based on an exterior illumination level for each window blinds tilt angle, artificial lighting energy consumed, and artificial lighting heat produced to bring the room to a predetermined illumination level; determining climate energy, at each of the time intervals, required to maintain the room at a predetermined temperature based on the predicted room temperatures and the illumination heat at each of the time intervals; determining a total room energy at each of the time intervals as a function of the window blinds tilt angles based on the climate energy, illumination energy, and predicted room temperatures; determining, from the total room energy, an optimal blind tilt angle at each of the time intervals, wherein the optimal blind tilt angle minimizes the total room energy at each of the time intervals; and controlling the tilt angles of window blinds in the room at each of the time intervals according to the optimal blind tilt angle, unless there is an override condition.
A method for wireless communications by a base station, BS, the method comprising: establishing a data connection with a user equipment, UE, via one or more data bearers; making a first determination whether to route uplink traffic for each data bearer of the one or more data bearers from the UE via a first radio access technology, RAT, or a second RAT; making a second determination whether to route downlink traffic for each data bearer of the one or more data bearers to the UE via the first RAT or the second RAT; providing a radio resource control, RRC, message comprising configuration indicating that one or more data bearers are to be sent via the first RAT and the second RAT, wherein the uplink and downlink traffic for each of the one or more data bearers is independently configured for routing via the first RAT and the second RAT; receiving a configuration complete message from the UE; and participating in the data connection based on the configuration and after receiving the configuration complete message. establishing a data connection with a user equipment, UE, via one or more data bearers; making a first determination whether to route uplink traffic for each data bearer of the one or more data bearers from the UE via a first radio access technology, RAT, or a second RAT; making a second determination whether to route downlink traffic for each data bearer of the one or more data bearers to the UE via the first RAT or the second RAT; providing a radio resource control, RRC, message comprising configuration indicating that one or more data bearers are to be sent via the first RAT and the second RAT, wherein the uplink and downlink traffic for each of the one or more data bearers is independently configured for routing via the first RAT and the second RAT; receiving a configuration complete message from the UE; and participating in the data connection based on the configuration and after receiving the configuration complete message.
A light weight composite comprising: (i) a first metallic layer; (ii) a second metallic layer; (iii) a polymeric layer interposed between the first layer and the second layer; and (iv) one or more metallic fibers distributed within the polymeric layer; characterized in that the polymeric layer includes a filled polymeric material containing a polymer, the polymer having: an elongation at failure of at least 20% at a tensile strain rate of 0.1 s-1 as measured according to ASTM 0638-08, and a strain hardening modulus, G, greater than 1 MPa as measured at a strain rate of 0.1 s-1; the polymer includes a thermoplastic polymer having a crystallinity less than 80%; the metallic fibers includes fibers that are wrapped, braided, or entangled; the metallic fibers have a weight average length greater than 1 mm and less than 25 mm; and the fibers are formed from a metal selected from the group consisting of steel, magnesium, titanium, copper, alloys containing at least 40 wt% copper, other alloys containing at least 40 wt% iron, other alloys containing at least 40 wt% aluminum, alloys containing at least 40 wt% titanium, and any combination thereof; so that the resulting light weight composite material may be welded, plastically deformed at strain rates greater than 0.1 s -1, or both. (i) a first metallic layer; (ii) a second metallic layer; (iii) a polymeric layer interposed between the first layer and the second layer; and (iv) one or more metallic fibers distributed within the polymeric layer; an elongation at failure of at least 20% at a tensile strain rate of 0.1 s-1 as measured according to ASTM 0638-08, and a strain hardening modulus, G, greater than 1 MPa as measured at a strain rate of 0.1 s-1; the polymer includes a thermoplastic polymer having a crystallinity less than 80%; the metallic fibers includes fibers that are wrapped, braided, or entangled; the metallic fibers have a weight average length greater than 1 mm and less than 25 mm; and the fibers are formed from a metal selected from the group consisting of steel, magnesium, titanium, copper, alloys containing at least 40 wt% copper, other alloys containing at least 40 wt% iron, other alloys containing at least 40 wt% aluminum, alloys containing at least 40 wt% titanium, and any combination thereof; so that the resulting light weight composite material may be welded, plastically deformed at strain rates greater than 0.1 s -1, or both.
A liquid discharge apparatus comprising: a conveyor to convey a medium; and a plurality of liquid discharge heads arrayed in a conveyance direction of the medium, the liquid discharge heads being parallel to each other, overlap when viewed in the conveyance direction and cover the width of the medium in a direction perpendicular to the conveyance direction, wherein: each of the plurality of liquid discharge heads includes head-side positioning portions and the conveyor includes conveyor-side positioning portions; and the head-side positioning portions and the conveyor-side positioning portions are positioning portions to define a positional relation between the conveyor and each of the plurality of liquid discharge heads; characterized in that the conveyor-side positioning portions can be positioned in correspondence with the head-side positioning portions of each of the plurality of liquid discharge heads by movement of the conveyor in the conveyance direction so that the relative position of the conveyor and each of the plurality of liquid discharge heads can be set with a rod-shaped member or a laser beam using the common conveyor-side positioning portions. a conveyor to convey a medium; and a plurality of liquid discharge heads arrayed in a conveyance direction of the medium, the liquid discharge heads being parallel to each other, overlap when viewed in the conveyance direction and cover the width of the medium in a direction perpendicular to the conveyance direction, wherein: each of the plurality of liquid discharge heads includes head-side positioning portions and the conveyor includes conveyor-side positioning portions; and the head-side positioning portions and the conveyor-side positioning portions are positioning portions to define a positional relation between the conveyor and each of the plurality of liquid discharge heads; characterized in that the conveyor-side positioning portions can be positioned in correspondence with the head-side positioning portions of each of the plurality of liquid discharge heads by movement of the conveyor in the conveyance direction so that the relative position of the conveyor and each of the plurality of liquid discharge heads can be set with a rod-shaped member or a laser beam using the common conveyor-side positioning portions. each of the plurality of liquid discharge heads includes head-side positioning portions and the conveyor includes conveyor-side positioning portions; and the head-side positioning portions and the conveyor-side positioning portions are positioning portions to define a positional relation between the conveyor and each of the plurality of liquid discharge heads; characterized in that the conveyor-side positioning portions can be positioned in correspondence with the head-side positioning portions of each of the plurality of liquid discharge heads by movement of the conveyor in the conveyance direction so that the relative position of the conveyor and each of the plurality of liquid discharge heads can be set with a rod-shaped member or a laser beam using the common conveyor-side positioning portions.