mhurhangee/patent-ind-claim-en huggingface dataset:
An elongated medical instrument-driving device comprising: a supporting member for supporting an elongated medical instrument having a front end and a rear end ; and a drive mechanism for applying a driving force to the supporting member so that the elongated medical instrument moves toward a front-end side together with the supporting member , wherein the drive mechanism is configured to apply the predetermined force or the predetermined velocity to the elongated medical instrument . a supporting member for supporting an elongated medical instrument having a front end and a rear end ; and a drive mechanism for applying a driving force to the supporting member so that the elongated medical instrument moves toward a front-end side together with the supporting member , wherein the drive mechanism is configured to apply the predetermined force or the predetermined velocity to the elongated medical instrument .
A method of wireless communications, comprising: receiving , at a first user equipment from a network, a sidelink discontinuous reception, DRX, configuration; configuring a sidelink DRX cycle at the first user equipment based on the sidelink DRX configuration; receiving , at the first user equipment from the network, data for a second user equipment; sending , from the first user equipment to the second user equipment on a sidelink in accordance with the sidelink DRX cycle, the data for the second user equipment; sending, from the first user equipment to the second user equipment on the sidelink, the first sidelink DRX configuration, wherein the first sidelink DRX configuration is configured to configure a DRX cycle at the second user equipment; receiving , at the first user equipment from the second user equipment, a sidelink DRX configuration preference; and sending , from the first user equipment to the second user equipment on the sidelink, a second sidelink DRX configuration based on the sidelink DRX configuration preference from the second user equipment. receiving , at a first user equipment from a network, a sidelink discontinuous reception, DRX, configuration; configuring a sidelink DRX cycle at the first user equipment based on the sidelink DRX configuration; receiving , at the first user equipment from the network, data for a second user equipment; sending , from the first user equipment to the second user equipment on a sidelink in accordance with the sidelink DRX cycle, the data for the second user equipment; sending, from the first user equipment to the second user equipment on the sidelink, the first sidelink DRX configuration, wherein the first sidelink DRX configuration is configured to configure a DRX cycle at the second user equipment; receiving , at the first user equipment from the second user equipment, a sidelink DRX configuration preference; and sending , from the first user equipment to the second user equipment on the sidelink, a second sidelink DRX configuration based on the sidelink DRX configuration preference from the second user equipment.
A process for preparing a hypromellose hard capsule using thermogelation with improved storage stability, film strength, film distribution, filling up performance and/or bioavailability of ingredient comprising the steps of: i) sequentially adding and solubilizing 0.1-0.5 wt part of propylene glycol as plasticizer, 0.1-0.5 wt part of D-sorbitol as wetting agent and 0.04-0.25 wt part of colloidal silica as viscosity stabilizer into the 100 wt part of hypromellose aqueous dispersion containing 19-22 wt part of hypromellose, and dispersing them 4 hours, wherein the amount of sodium chloride in raw material of hypromellose is less than 0.3 wt%; ii) completely solubilizing the hypromellose aqueous dispersion obtained in step i) to be transparent liquid phase by standing still for 44-52 hours at 17-23 °C in the hydration tank; iii) adjusting the final viscosity of hypromellose aqueous solution into 800-1,300 mPa·s (800-1,300 cP); iv) dipping the preheated mold pin into the hypromellose aqueous solution in the dipping pan maintained at 19-21 °C under the control of temperature control device of dipping pan after preheating the mold pin to be 100-120 °C in the deck heater of pinbar heating part; and v) forming and drying the obtained hard capsule at 50-70 °C, 20-85% of relative humidity for 40-80 minutes. i) sequentially adding and solubilizing 0.1-0.5 wt part of propylene glycol as plasticizer, 0.1-0.5 wt part of D-sorbitol as wetting agent and 0.04-0.25 wt part of colloidal silica as viscosity stabilizer into the 100 wt part of hypromellose aqueous dispersion containing 19-22 wt part of hypromellose, and dispersing them 4 hours, wherein the amount of sodium chloride in raw material of hypromellose is less than 0.3 wt%; ii) completely solubilizing the hypromellose aqueous dispersion obtained in step i) to be transparent liquid phase by standing still for 44-52 hours at 17-23 °C in the hydration tank; iii) adjusting the final viscosity of hypromellose aqueous solution into 800-1,300 mPa·s (800-1,300 cP); iv) dipping the preheated mold pin into the hypromellose aqueous solution in the dipping pan maintained at 19-21 °C under the control of temperature control device of dipping pan after preheating the mold pin to be 100-120 °C in the deck heater of pinbar heating part; and v) forming and drying the obtained hard capsule at 50-70 °C, 20-85% of relative humidity for 40-80 minutes.
Method for chromatic confocal multipoint measurement with colour splitting in the propagation direction of the illumination light based on a point-wise chromatic confocal distance measurement, characterized in that the chromatically coded measurement values of a plurality of measurement points, which are laterally spaced apart perpendicularly to the propagation direction and in which a reference wavelength λ 0 is focused in each case at different axial distances from a sensor, are transmitted to a detector unit with a spectral multiplexing method, wherein each measurement point is assigned a spectral partial band of the entire spectral bandwidth of the illumination light and a respectively different focal length, and wherein, in the spectral multiplexing method, the spectral partial bands that are assigned to the plurality of measurement points are transmitted simultaneously to the detection unit via an individual broadband optical channel.
A method of purifying monoclonal antibodies, said method including the steps of: a) following production of antibodies in a source organism, harvesting monoclonal antibody sources from the source organism; b) extracting said antibodies from said source organism with an extraction formulation comprising an alkaline buffer, an antioxidant and a chelating agent, and clarifying the antibodies; c) processing said extracted and clarified antibodies through a series of chromatography separation procedures, i) wherein a first procedure includes an affinity column from which the target antibody is eluted with an arginine-containing acidic buffer to form an eluent containing full-length monomeric antibody structures, ii) wherein a second procedure includes an ion-exchange column for separating and collecting the full-length antibody monomeric structures from the eluent of step "c(i)", and iii) wherein a third procedure includes a multimodal column from which the target antibody is eluted over a gradient established between at least one salt, during which the monomeric antibody structures are collected; d) subjecting the collected antibody structures from step "c(iii)" to a buffer extraction step; e) filtering said collected antibody structure fraction through a multiple filter press operation; and f) collecting the resultant filtered monoclonal antibody formulations and storing the same for utilization as a bulk drug substance; wherein before performing step "c(ii)" the antibody eluent of step "c(i)"is neutralized to a pH that is at least 0.2 units below the isoelectric point for the antibody. a) following production of antibodies in a source organism, harvesting monoclonal antibody sources from the source organism; b) extracting said antibodies from said source organism with an extraction formulation comprising an alkaline buffer, an antioxidant and a chelating agent, and clarifying the antibodies; c) processing said extracted and clarified antibodies through a series of chromatography separation procedures, i) wherein a first procedure includes an affinity column from which the target antibody is eluted with an arginine-containing acidic buffer to form an eluent containing full-length monomeric antibody structures, ii) wherein a second procedure includes an ion-exchange column for separating and collecting the full-length antibody monomeric structures from the eluent of step "c(i)", and iii) wherein a third procedure includes a multimodal column from which the target antibody is eluted over a gradient established between at least one salt, during which the monomeric antibody structures are collected; d) subjecting the collected antibody structures from step "c(iii)" to a buffer extraction step; e) filtering said collected antibody structure fraction through a multiple filter press operation; and f) collecting the resultant filtered monoclonal antibody formulations and storing the same for utilization as a bulk drug substance;
A thermal tripping mechanism of a surge protection device, comprising an elastic mechanism (105, 106; 205); two voltage-sensitive resistors (103; 203) and one discharge tube (108; 204) forming a Y-shaped layout, the two voltage-sensitive resistors (103; 203) being directly or indirectly connected with the discharge tube (108; 204) by using a thermal fusing material; the elastic mechanism comprising an elastic element (105; 205) and a sliding element , the elastic element (105; 205) driving the sliding element to move by an elastic force; wherein when the two voltage-sensitive resistors (103; 203) are both intact, the thermal fusing material is configured not to reach a fusing temperature, the two voltage-sensitive resistors (103; 203) and the discharge tube (108; 204) are configured to form a conductive path, and the elastic element (105; 205) is configured to be in an energy storage state; when at least one of the two voltage-sensitive resistors (103; 203) is degraded due to surge voltage, the thermal fusing material is configured to reach the fusing temperature, the elastic element (105; 205) is configured to release energy for driving the sliding element to move, and the sliding element is configured to move to cut off the conductive path; wherein the two voltage-sensitive resistors (103; 203) are connected with the discharge tube (108; 204) through a connection piece ; the connection piece comprises a conductive material, a first end of the connection piece is provided with two first connection grooves , the two first connection grooves are connected with pins of the two voltage-sensitive resistors (103; 203) respectively, a second end of the connection piece is provided with a second connection groove , the second connection groove is connected with a pin of the discharge tube (108; 204), wherein the connection piece is connected with at least one of the two voltage-sensitive resistors (103; 203) and the discharge tube (108; 204) through a thermal fusing material.
Light-emitting diode device , having a first carrier and at least one light-emitting diode chip , which is arranged on the first carrier , wherein - the first carrier has at least one first and one second carrier part , - the light-emitting diode chip rests only on the first carrier part of the first carrier , - the first and second carrier parts each have a thermal conductivity, and - the first carrier part of the first carrier is surrounded laterally by the second carrier part of the first carrier , characterized in that the thermal conductivity of the first carrier part is at least 1.5 times the thermal conductivity of the second carrier part , and - the first carrier part of the first carrier has dopings , wherein the dopings are embodied as metal particles embedded in a ceramic material or as metallic doping in a semiconductor material. - the first carrier has at least one first and one second carrier part , - the light-emitting diode chip rests only on the first carrier part of the first carrier , - the first and second carrier parts each have a thermal conductivity, and - the first carrier part of the first carrier is surrounded laterally by the second carrier part of the first carrier , - the first carrier part of the first carrier has dopings , wherein the dopings are embodied as metal particles embedded in a ceramic material or as metallic doping in a semiconductor material.
A flow-actuated valve for use in a wellbore, comprising: a body ; a poppet movable relative to the body between an open position and a closed position; and a spring biasing the poppet toward the closed position; characterized in that the valve further comprises: a shifter (8,18,19,21-23,26) having a drogue and a detent engaged with a detent profile of the poppet and a locking receptacle of the body when in an auto-fill mode, thereby keeping the poppet in a partially open position, wherein: the valve is operable to shift to a float mode in response to a first flow rate moving the poppet toward the open position to disengage the detent from the locking receptacle and a second flow rate imparting a drag force on the drogue sufficient to disengage the detent from the detent profile , and the second flow rate is different than the first flow rate. a body ; a poppet movable relative to the body between an open position and a closed position; and a spring biasing the poppet toward the closed position; characterized in that the valve further comprises: a shifter (8,18,19,21-23,26) having a drogue and a detent engaged with a detent profile of the poppet and a locking receptacle of the body when in an auto-fill mode, thereby keeping the poppet in a partially open position, wherein: the valve is operable to shift to a float mode in response to a first flow rate moving the poppet toward the open position to disengage the detent from the locking receptacle and a second flow rate imparting a drag force on the drogue sufficient to disengage the detent from the detent profile , and the second flow rate is different than the first flow rate. a shifter (8,18,19,21-23,26) having a drogue and a detent engaged with a detent profile of the poppet and a locking receptacle of the body when in an auto-fill mode, thereby keeping the poppet in a partially open position, wherein: the valve is operable to shift to a float mode in response to a first flow rate moving the poppet toward the open position to disengage the detent from the locking receptacle and a second flow rate imparting a drag force on the drogue sufficient to disengage the detent from the detent profile , and the second flow rate is different than the first flow rate. the valve is operable to shift to a float mode in response to a first flow rate moving the poppet toward the open position to disengage the detent from the locking receptacle and a second flow rate imparting a drag force on the drogue sufficient to disengage the detent from the detent profile , and the second flow rate is different than the first flow rate.
A method comprising: receiving , at a user equipment, from a base station, measurement configuration information including an indicator representative of whether a first type of load-sensitive metric or a second type of load sensitive metric is to be used when making measurements; and reporting , by the user equipment, one or more measurement reports made in accordance with the received indicator, the first type of load-sensitive metric comprises a first type of reference signal received quality, RSRQ, metric and the second type of load-sensitive metric comprises a second type of RSRQ metric, characterized in that the first type of RSRQ metric comprises that the RSRQ is calculated based on all orthogonal frequency division multiplexing, OFDM, symbols in a subframe and in that the second type of RSRQ metric comprises that the RSRQ is calculated based only on symbols that contain a cell specific reference signal, and by receiving signalling, from a network, indicating that small cells on a first carrier frequency are to be measured using the first RSRQ metric and macrocells on the first carrier frequency or another carrier frequency are to be measured using the second RSRQ metric. receiving , at a user equipment, from a base station, measurement configuration information including an indicator representative of whether a first type of load-sensitive metric or a second type of load sensitive metric is to be used when making measurements; and reporting , by the user equipment, one or more measurement reports made in accordance with the received indicator, the first type of load-sensitive metric comprises a first type of reference signal received quality, RSRQ, metric and the second type of load-sensitive metric comprises a second type of RSRQ metric, characterized in that the first type of RSRQ metric comprises that the RSRQ is calculated based on all orthogonal frequency division multiplexing, OFDM, symbols in a subframe and in that the second type of RSRQ metric comprises that the RSRQ is calculated based only on symbols that contain a cell specific reference signal, and by receiving signalling, from a network, indicating that small cells on a first carrier frequency are to be measured using the first RSRQ metric and macrocells on the first carrier frequency or another carrier frequency are to be measured using the second RSRQ metric.
Method of operating a user equipment in a Radio Access Network, the method comprising transmitting uplink data utilising allocated frequency resources based on allocation information received in a Downlink Control Information, DCI, message, the message having an allocation information structure comprising a bitmap of B bits containing mapping information; the frequency resources being in a bandwidth of N resource blocks in frequency domain for transmitting the uplink data, the bandwidth being a specific part of the carrier bandwidth configured to the UE, the mapping information pertaining to the specific part of the carrier bandwidth; a resource block group, RBG, size R in frequency domain being associated to the specific part of the carrier bandwidth, R representing the number of resource blocks in an RBG, R being dependent on the specific part of the carrier bandwidth configured to the UE; each bit of the B bits of the bit map being mapped to a different RBG of size R to indicate whether the RBG is allocated as frequency resource for transmission or not; characterised in that R has a value of a power of 2, wherein further R is an element of a configured set of RBG sizes, the RBG sizes of the configured set relating to each other according to a power of 2. a resource block group, RBG, size R in frequency domain being associated to the specific part of the carrier bandwidth, R representing the number of resource blocks in an RBG, R being dependent on the specific part of the carrier bandwidth configured to the UE; each bit of the B bits of the bit map being mapped to a different RBG of size R to indicate whether the RBG is allocated as frequency resource for transmission or not; characterised in that R has a value of a power of 2, wherein further R is an element of a configured set of RBG sizes, the RBG sizes of the configured set relating to each other according to a power of 2.
Hoist-actuating switch comprising a switch housing and a plurality of switching elements , wherein the switching elements each comprise: a. a substantially cylindrical switching pin guided in a sleeve in a rotationally fixed manner; b. a button which is acted upon by the switching pin , preferably by its underside ; c. an optical mark attached to the upper end face of the switching pin ; an at least partially flexible, rotationally symmetrical cap which is provided with a connection opening on one side, includes a rubber-like material, and covers the upper end of the switching pin and rests thereon with an inner surface , wherein the cap includes a transparent hard plastic window in the region of the contact surface, as a result of which the optical mark is visible from the outside through the window and is shielded against environmental influences; wherein the window is hermetically and permanently connected to the rubber-like material of the cap . a. a substantially cylindrical switching pin guided in a sleeve in a rotationally fixed manner; b. a button which is acted upon by the switching pin , preferably by its underside ; c. an optical mark attached to the upper end face of the switching pin ;
A light modulation quantum dot (QD) color display, comprising: a light source ; a light modulator positioned above the light source to control transmittance of light generated from the light source ; and a QD light-emitting element comprising a plurality of QD patterns (06; 07; 08) positioned above the light modulator to emit light converted from the transmitted light, wherein each QD pattern comprises quantum dots dispersed in a polymer matrix (12;13), and wherein the QD light-emitting element further includes: a substrate ; the display being characterised in that an alignment layer is interposed between the substrate and the plurality of QD patterns , and in that the polymer matrix has aligned polymer chains such that uniform light emission by uniform distribution of the QDs in the polymer matrix is accomplished. a light source ; a light modulator positioned above the light source to control transmittance of light generated from the light source ; and a QD light-emitting element comprising a plurality of QD patterns (06; 07; 08) positioned above the light modulator to emit light converted from the transmitted light, wherein each QD pattern comprises quantum dots dispersed in a polymer matrix (12;13), and wherein the QD light-emitting element further includes: a substrate ; the display being characterised in that an alignment layer is interposed between the substrate and the plurality of QD patterns , and in that the polymer matrix has aligned polymer chains such that uniform light emission by uniform distribution of the QDs in the polymer matrix is accomplished. a substrate ; the display being characterised in that an alignment layer is interposed between the substrate and the plurality of QD patterns , and in that the polymer matrix has aligned polymer chains such that uniform light emission by uniform distribution of the QDs in the polymer matrix is accomplished.
Centrifugal fan comprising a fan wheel apt to process a fluid between an inlet and an outlet , said fan wheel comprising an array of blades arranged around an axis (A), a disc-shaped base normal to the axis (A) and to which said blades are rigidly connected, a hub coaxial to the axis (A) and rigidly connected to the disc-shaped base , an air conveyor made in a piece separate from the hub , said air conveyor being apt to gradually convey the fluid from a substantially axial motion at the inlet to a substantially radial motion at the outlet , said disc-shaped base being made of sheet metal and said air conveyor being rigidly connected to the disc-shaped base , characterized by comprising at least one connecting structural element between the hub and the air conveyor , the inlet having the shape of an annulus wherein the inner circumference is separated from the hub .