mhurhangee/ep-ind-claims huggingface dataset:
An endovascular prosthesis (100, 400A, 400B) having a compressed configuration for delivery within a vasculature and a radially-expanded configuration for deployment within a target blood vessel of a patient, the endovascular prosthesis (100, 400A, 400B) comprising: an anchor stent for engaging an inner wall of the target blood vessel when the prosthesis (100, 400A, 400B) is in the radially-expanded configuration; a tubular body formed from a graft material defining a central lumen from a first end to a second end thereof, wherein the anchor stent is attached to the first end of the tubular body, the tubular body having an inner surface and an outer surface; a body stent attached to the outer surface of the tubular body for maintaining the tubular body in the radially-expanded configuration; and a hydrogel composition (108, 108A) associated with about 20% to about 100% of the outer surface of the tubular body, the hydrogel composition (108, 108A) comprising a hydrogel polymer and one or more of a stabilizing polymer, a biologically active agent and a bioabsorbable polymer, wherein the hydrogel composition (108, 108A) is in a non-expanded state and capable of expanding to an expanded state following introduction into the target blood vessel of the patient. an anchor stent for engaging an inner wall of the target blood vessel when the prosthesis (100, 400A, 400B) is in the radially-expanded configuration; a tubular body formed from a graft material defining a central lumen from a first end to a second end thereof, wherein the anchor stent is attached to the first end of the tubular body, the tubular body having an inner surface and an outer surface; a body stent attached to the outer surface of the tubular body for maintaining the tubular body in the radially-expanded configuration; and a hydrogel composition (108, 108A) associated with about 20% to about 100% of the outer surface of the tubular body, the hydrogel composition (108, 108A) comprising a hydrogel polymer and one or more of a stabilizing polymer, a biologically active agent and a bioabsorbable polymer, wherein the hydrogel composition (108, 108A) is in a non-expanded state and capable of expanding to an expanded state following introduction into the target blood vessel of the patient.
An ophthalmic surgical system for treating eye tissue during a cataract surgical procedure, comprising: a light source (10, LS) for generating a beam of light; an imaging device configured to be used to determine a size and a location of the lens of the eye tissue, the imaging device being an Optical Coherence Tomography device; a delivery system (16, L1, G1, G2) for focusing the beam onto the eye tissue in the lens; and a controller (12, CPU) operatively coupled to the light source, the imaging device and the delivery system, and configured to: determine parameters of a cutting pattern based on the size and the location of the lens; and control the light source and the delivery system such that the light beam is focused at multiple focal points in the eye tissue and at multiple depths within the eye tissue and to scan the light beam in the cutting pattern at the eye tissue at the determined location in the lens, so as to cut the eye tissue. a light source (10, LS) for generating a beam of light; an imaging device configured to be used to determine a size and a location of the lens of the eye tissue, the imaging device being an Optical Coherence Tomography device; a delivery system (16, L1, G1, G2) for focusing the beam onto the eye tissue in the lens; and a controller (12, CPU) operatively coupled to the light source, the imaging device and the delivery system, and configured to: determine parameters of a cutting pattern based on the size and the location of the lens; and control the light source and the delivery system such that the light beam is focused at multiple focal points in the eye tissue and at multiple depths within the eye tissue and to scan the light beam in the cutting pattern at the eye tissue at the determined location in the lens, so as to cut the eye tissue. determine parameters of a cutting pattern based on the size and the location of the lens; and control the light source and the delivery system such that the light beam is focused at multiple focal points in the eye tissue and at multiple depths within the eye tissue and to scan the light beam in the cutting pattern at the eye tissue at the determined location in the lens, so as to cut the eye tissue.
A removable seats system comprising: - a first selectively vertically movable platform defining opposite upper and lower sides (48a, 48b); - a seat member comprising at least one seat; and - first and second complementary male-female engagement members (86, 88, 92, 94), characterized in that said first and second complementary male-female engagement members (86, 88, 92, 94) are respectively provided on said upper side of said first platform and on said seat member; in that said seat member is removably supported in an operative position on said upper side of said first platform through a releasable engagement of said first and second male-female engagement members (86, 88, 92, 94) with one another, and in that a load of said seat member is transferred by said second male-female engagement member (92,94) to said first male-female engagement member (86, 88). - a first selectively vertically movable platform defining opposite upper and lower sides (48a, 48b); - a seat member comprising at least one seat; and - first and second complementary male-female engagement members (86, 88, 92, 94),
A mesenchymal stem cell modified by introducing a gene encoding a hepatocyte growth factor and a gene encoding neurogenin 1 or its active fragment into a mesenchymal stem cell.
Process comprising the process steps of: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1: d) addition of 3,5,5-trimethylhexanoic acid and water, wherein the ratio based on the volume used is in the range from 0.75/1.25 to 1.8/0.2, e) feeding in CO, f) heating the reaction mixture such that the diisobutene is converted to the compound P1: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1: d) addition of 3,5,5-trimethylhexanoic acid and water, wherein the ratio based on the volume used is in the range from 0.75/1.25 to 1.8/0.2, e) feeding in CO, f) heating the reaction mixture such that the diisobutene is converted to the compound P1:
An apparatus comprising: a scheduler configured to schedule at least two radio communication processes for simultaneous operation; a measuring unit configured to measure a communication parameter of at least one of the radio communication processes, wherein the communication parameter comprises a quality of a communication link of a communication process; a controller configured to adjust the measured communication parameter of the radio communication process to indicate a worse quality than that indicated by the measuring unit, the controller being configured to adjust the measured communication parameter before the simultaneous operation of the at least two radio communication processes takes place and a communication unit configured to communicate the adjusted communication parameter to another party of at least one of the radio communication processes. a scheduler configured to schedule at least two radio communication processes for simultaneous operation; a measuring unit configured to measure a communication parameter of at least one of the radio communication processes, wherein the communication parameter comprises a quality of a communication link of a communication process; a controller configured to adjust the measured communication parameter of the radio communication process to indicate a worse quality than that indicated by the measuring unit, the controller being configured to adjust the measured communication parameter before the simultaneous operation of the at least two radio communication processes takes place and a communication unit configured to communicate the adjusted communication parameter to another party of at least one of the radio communication processes.
A method of analyzing the behavior of a secure electronic token, said electronic token comprising a communication interface for exchanging data (CD1, RE1) with an external entity, said electronic token having a lifecycle wherein said token is intended to be created then issued, said method comprising the steps of: a) loading and installing a dedicated application into the electronic token, b) generating a buffer, c) sending the buffer to an external machine, characterized in that said loading and installing step is performed after the electronic token has been issued and in that said method comprises the step of: d) spying all the data (CD1, RE1) exchanged through the communication interface by a specific means that was already embedded in said electronic token when the electronic token was issued and providing the dedicated application with said spied data (CD1, RE1), the buffer being generated from the spied data (CD1, RE1) by the dedicated application. a) loading and installing a dedicated application into the electronic token, b) generating a buffer, c) sending the buffer to an external machine, characterized in that said loading and installing step is performed after the electronic token has been issued and in that said method comprises the step of: d) spying all the data (CD1, RE1) exchanged through the communication interface by a specific means that was already embedded in said electronic token when the electronic token was issued and providing the dedicated application with said spied data (CD1, RE1), the buffer being generated from the spied data (CD1, RE1) by the dedicated application.
A safety system for a production line comprising: a work device configured to move along multiple production devices arranged in a row, wherein each of the multiple production devices is provided with a power supplying section configured to supply electric power wirelessly, and the work device is provided with a power receiving section configured to receive electric power supplied wirelessly from the power supplying section of the production device opposite the power receiving section among the multiple production devices, a monitoring section configured to monitor whether a person or object has entered a monitoring area around the work device, a driving section configured to move the work device, a control section, a power source circuit section configured to operate the monitoring section, the control section, and the driving section using the electric power received from the power receiving section as a power source, and a safety circuit section configured to block supply of power to the driving section and to maintain power supply to the monitoring section and the control section when the monitoring section detects that a person or object has entered the monitoring area. a work device configured to move along multiple production devices arranged in a row, wherein each of the multiple production devices is provided with a power supplying section configured to supply electric power wirelessly, and the work device is provided with a power receiving section configured to receive electric power supplied wirelessly from the power supplying section of the production device opposite the power receiving section among the multiple production devices, a monitoring section configured to monitor whether a person or object has entered a monitoring area around the work device, a driving section configured to move the work device, a control section, a power source circuit section configured to operate the monitoring section, the control section, and the driving section using the electric power received from the power receiving section as a power source, and a safety circuit section configured to block supply of power to the driving section and to maintain power supply to the monitoring section and the control section when the monitoring section detects that a person or object has entered the monitoring area.
An orthogonal frequency division multiplexing, OFDM, offset quadrature amplitude modulation, OQAM, multicarrier transmission method in which a plurality of subcarriers, having a relationship vτ =1/2 where τ represents a symbol interval and v represents a frequency interval, are subjected to amplitude modulation, the method comprising: a transmission step of generating and transmitting a pilot carrier obtained by modulating a single subcarrier of the plurality of subcarriers with a signal sequence including a reference pilot signal sequence represented by any of amplitude modulation vectors {α, α, -α, -α}, {α, -α, -α, α}, {-α, α, α, -α}, and {-α, -α, α, α} where α represents a real number other than 0; and an estimation step of estimating transmission channel characteristics based on two successive pilot signal demodulation vectors in a time direction which are obtained by demodulating the pilot carrier. a transmission step of generating and transmitting a pilot carrier obtained by modulating a single subcarrier of the plurality of subcarriers with a signal sequence including a reference pilot signal sequence represented by any of amplitude modulation vectors {α, α, -α, -α}, {α, -α, -α, α}, {-α, α, α, -α}, and {-α, -α, α, α} where α represents a real number other than 0; and an estimation step of estimating transmission channel characteristics based on two successive pilot signal demodulation vectors in a time direction which are obtained by demodulating the pilot carrier.
A peptide comprising the amino acid sequence XLIXGVLVTTRRRKK (SEQ ID NO: 1) wherein the peptide is less than 50 amino acids in length and is capable of penetrating a cell.
A plant for producing wood pellets or other solid granules from small pieces of material of organic and/or plant origin comprising devices for adding, preparing (2 to 4), drying, pressing, cooling and discharging the material that are at least partially arranged in individual transportable containers that can be assembled like modules for least a major part of the plant, wherein at least the device for cooling, when designed as a shaft cooler, is completely arranged in a container.
Method for the dynamic power allocation for a group of at least one satellite access network associated with a group of at least one satellite, the said group of at least one satellite access network comprising a plurality of resource allocation managers, the said method being implemented by a device for dynamic allocation of power and being characterized in that it comprises: - a step for acquisition of a signal representative of a data rate requirement in each resource allocation manager for each satellite access network, - a step for conversion, for each resource allocation manager of the group of at least one satellite access network, of the signal representative of the data rate requirement in the said satellite access network into a value corresponding to the power consumed on board the satellite in order to obtain this data rate, - a step for calculating a total power margin equal to the difference between the power available on board the satellite and the sum of the powers consumed by each resource allocation manager, - a step for allocating power to the various resource allocation managers for the group of at least one satellite access network, the value of power allocated being a function of the calculated total power margin, the method being characterized in that the step for acquisition comprises a step for acquisition coming from telemetry data, of a signal representative of an instantaneous power available on board at least one satellite. - a step for acquisition of a signal representative of a data rate requirement in each resource allocation manager for each satellite access network, - a step for conversion, for each resource allocation manager of the group of at least one satellite access network, of the signal representative of the data rate requirement in the said satellite access network into a value corresponding to the power consumed on board the satellite in order to obtain this data rate, - a step for calculating a total power margin equal to the difference between the power available on board the satellite and the sum of the powers consumed by each resource allocation manager, - a step for allocating power to the various resource allocation managers for the group of at least one satellite access network, the value of power allocated being a function of the calculated total power margin,
A mounting device, including a pickup member configured to be lifted or lowered by driving a motor with feedback control to pick up a component, which is configured to mount on a board the component picked up by the pickup member, the mounting device comprising: a detection section configured to detect a driving state of the motor necessary for the feedback control; an acquisition section configured to acquire, based on the driving state detected by the detection section, at least one of a load resulting when the pickup member descends to a supply position of a pickup target component to come into contact with the component and a load resulting when the pickup member descends to a mounting position of the component in a picked-up state to come into contact with the board via the component, and a determination section configured to determine, based on the load acquired by the acquisition section, at least one of a descending speed of the pickup member when descending to the supply position and a descending speed of the pickup member when descending to the mounting position, characterized in that the acquisition section is configured to acquire the load in association with multiple regions of the board, and the determination section is configured to determine the descending speed when descending to the mounting position for each of the multiple regions. a detection section configured to detect a driving state of the motor necessary for the feedback control; an acquisition section configured to acquire, based on the driving state detected by the detection section, at least one of a load resulting when the pickup member descends to a supply position of a pickup target component to come into contact with the component and a load resulting when the pickup member descends to a mounting position of the component in a picked-up state to come into contact with the board via the component, and a determination section configured to determine, based on the load acquired by the acquisition section, at least one of a descending speed of the pickup member when descending to the supply position and a descending speed of the pickup member when descending to the mounting position, characterized in that the acquisition section is configured to acquire the load in association with multiple regions of the board, and the determination section is configured to determine the descending speed when descending to the mounting position for each of the multiple regions.
A computer-implemented method for database management, the method comprising: receiving, from a client device, first data to be stored in a database system that comprises first data storage (150, 160) configured to store a data table and a deletion history table; storing the first data in second data storage that is external to the database system and that is in communication with the database system via a network; obtaining a link that enables access, via the network, to the first data stored in the second data storage; storing the link in the data table; and performing a deletion operation of the first data, in response to a request from the client device to delete the first data from the database system, wherein the deletion operation comprises: deleting the link from the data table without deleting the first data from the second data storage; and storing the link in the deletion history table with a timestamp corresponding to a point in time when the link is deleted from the data table, and wherein the method further comprises: deleting the first data from the second data storage based on: a specified maximum retention time of backup data for the database system, and the timestamp of the link stored in the deletion history table. receiving, from a client device, first data to be stored in a database system that comprises first data storage (150, 160) configured to store a data table and a deletion history table; storing the first data in second data storage that is external to the database system and that is in communication with the database system via a network; obtaining a link that enables access, via the network, to the first data stored in the second data storage; storing the link in the data table; and performing a deletion operation of the first data, in response to a request from the client device to delete the first data from the database system, wherein the deletion operation comprises: deleting the link from the data table without deleting the first data from the second data storage; and storing the link in the deletion history table with a timestamp corresponding to a point in time when the link is deleted from the data table, and deleting the link from the data table without deleting the first data from the second data storage; and storing the link in the deletion history table with a timestamp corresponding to a point in time when the link is deleted from the data table, and wherein the method further comprises: deleting the first data from the second data storage based on: a specified maximum retention time of backup data for the database system, and the timestamp of the link stored in the deletion history table. a specified maximum retention time of backup data for the database system, and the timestamp of the link stored in the deletion history table.
Apparatus for acquiring a predetermined-position deviation of two bodies (10, 12), having a first measurement unit for placement at the first body, a second measurement unit for placement at the second body, and an evaluation unit, wherein the first measurement unit has means for generating at least one light beam and a scattering surface for scattering light (WV, PV) that is incident on the scattering surface, wherein the second measurement unit has a reflector arrangement, which faces the first measurement unit if the measurement units (14, 18) are placed at the respective body (10, 12), in order to reflect the light beam onto the scattering surface, and wherein the second measurement unit has a camera for recording images of the scattering surface, wherein the evaluation unit is configured to ascertain, from image data supplied by the camera, at least one incidence position of the light beam, which is reflected at the reflector arrangement, on the scattering surface and to acquire, from the incidence position, a deviation of the position of the first body from a predetermined position of the first body (10, 12), and a deviation of the position of the second body from a predetermined position of the second body.