mhurhangee/patent-ind-claim-en huggingface dataset:
A remote control robot system , comprising: a slave arm including a coupled body of a plurality of links (11a-11f) and an end effector attached to a tip-end part of the slave arm ; a master main body including a gripping part and an on/off switch provided to the gripping part , the master main body having a shape that corresponds to a shape of an object (P) handled by the end effector of the slave arm ; a manipulation receiving device configured to receive, based on changes in a position and posture of the master main body when the on/off switch is in an on state, manipulation given to the master main body in such a manner that while gripping the gripping part , the operator operates the on/off switch to directly move the master main body ; and a control device configured to control operation of the slave arm based on the manipulation received by the manipulation receiving device so that changes in a position and posture of the object (P) corresponds to the changes in the position and posture of the master main body . a slave arm including a coupled body of a plurality of links (11a-11f) and an end effector attached to a tip-end part of the slave arm ; a master main body including a gripping part and an on/off switch provided to the gripping part , the master main body having a shape that corresponds to a shape of an object (P) handled by the end effector of the slave arm ; a manipulation receiving device configured to receive, based on changes in a position and posture of the master main body when the on/off switch is in an on state, manipulation given to the master main body in such a manner that while gripping the gripping part , the operator operates the on/off switch to directly move the master main body ; and a control device configured to control operation of the slave arm based on the manipulation received by the manipulation receiving device so that changes in a position and posture of the object (P) corresponds to the changes in the position and posture of the master main body .
Method for providing a hydrogel coating on a polymeric substrate of a medical device comprising: (i) a priming step wherein the polymeric substrate is contacted with a priming solution, comprising a radical source and a crosslinking agent, comprising 1 to 30 wt % of a polyethylene glycol diacrylate having an average molecular weight of 300 to 750 Da; (ii) a grafting step following the priming step wherein the polymeric substrate is contacted with a grafting solution, comprising a polymer mixture, wherein the polymer mixture is a mixture of polyvinylpyrrolidone and polyethylene oxide, thereby providing a polymeric substrate of a medical device having a hydrogel coating. (i) a priming step wherein the polymeric substrate is contacted with a priming solution, comprising a radical source and a crosslinking agent, comprising 1 to 30 wt % of a polyethylene glycol diacrylate having an average molecular weight of 300 to 750 Da; (ii) a grafting step following the priming step wherein the polymeric substrate is contacted with a grafting solution, comprising a polymer mixture, wherein the polymer mixture is a mixture of polyvinylpyrrolidone and polyethylene oxide, thereby providing a polymeric substrate of a medical device having a hydrogel coating.
A converter system for a light emitting device, comprising: - a first material , which comprises, preferably ≥ 95 wt% of, an emitting material, emitting a color in a wavelength range of interest, and includes a concentration of ≤ 0.1 wt% of sensitizer material; and - a second sensitizer material , which includes a concentration of ≤ 0.1 wt% of the first material and absorbs light, is excitable, in the wavelength range of interest and its emission spectrum overlaps at least partly with one or more excitation bands of the first material, characterised in that the emitting material of the first material comprises one or more of the ions of the group comprising Eu 3+ , Tb 3+ and Mn 4+ and, and in that the second sensitizer material comprises one or more ions selected out of the group Eu 2+ , Pb 2+ , Bi 3+ and Ce 3+ . - a first material , which comprises, preferably ≥ 95 wt% of, an emitting material, emitting a color in a wavelength range of interest, and includes a concentration of ≤ 0.1 wt% of sensitizer material; and - a second sensitizer material , which includes a concentration of ≤ 0.1 wt% of the first material and absorbs light, is excitable, in the wavelength range of interest and its emission spectrum overlaps at least partly with one or more excitation bands of the first material, characterised in that the emitting material of the first material comprises one or more of the ions of the group comprising Eu 3+ , Tb 3+ and Mn 4+ and, and in that the second sensitizer material comprises one or more ions selected out of the group Eu 2+ , Pb 2+ , Bi 3+ and Ce 3+ .
An apparatus for Vapour Liquid Equilibrium (VLE) data measurement comprising an Equilibrium Chamber (U), a vacuum jacket (D) for the Equilibrium Chamber (U), a mixing chamber (K) with a cooling jacket (P), a magnetic stirrer (E) for the mixing chamber (K), a boiling chamber (F), an Insulated Cottrell Tube (G) to the Equilibrium Chamber (U), a vacuum jacket (H) for the Cottrell Tube (G), an external heater (I), and a condenser (L); wherein said equilibrium chamber (U) is connected to the mixing chamber (K) through a jacketed liquid return line and to the condenser (L) through an additional downward vapor flow connecting tube; wherein said mixing chamber (K) is provided for proper mixing of atleast two components wherein one component is equilibrium liquid from the equilibrium chamber (U) and the other component is vapor condensate from the condenser (L) before recycling back to the boiling chamber (F) to avoid any temperature and composition gradient and for fast attainment of equilibrium; and wherein the cooling jacket (P) is provided to the mixing chamber (K) and the liquid return line between the equilibrium chamber (U) and the mixing chamber (K) to avoid flashing for the accurate measurement of VLE data.
A polynucleotide comprising a transgene, wherein the transgene comprises an immunoglobulin light chain sequence comprising completely mouse DNA except for sequences encoding human immunoglobulin light chain variable (V) polypeptides and sequences encoding human immunoglobulin joining (J) polypeptides replacing their mouse orthologues, wherein all of the cis regulatory sequences in the immunoglobulin light chain sequence are mouse cis regulatory sequences, and wherein the transgene, when deployed in a mouse, is capable of generating an immunoglobulin light chain comprising a human variable region.
A placement device for placing parts of a disposable worn article on a base material (B), the placement device comprising: a base transfer device (BT) for carrying the base material (B); a part transfer unit (UT) for carrying a plurality of parts separated from each other; and two or more re-pitch units (U1, U2) for intermittently picking up the plurality of parts from the part transfer unit (UT) and intermittently placing the plurality of parts on the base material (B), wherein: each of the two or more re-pitch units (U1, U2) includes two pads (P1 to P4), each of which picks up one of the plurality of parts, accelerates until placing the one on the base material (B), and decelerates after the placement; each of the re-pitch units (U1, U2) includes one servo motor (M) for rotating one of the two pads (P1 to P4) and another servo motor (M) for rotating another one of the two pads (P1 to P4), and does not include three or more servo motors (M); and the two pads (P1 to P4) of each of the re-pitch units (U1, U2) rotate about a common axis. a base transfer device (BT) for carrying the base material (B); a part transfer unit (UT) for carrying a plurality of parts separated from each other; and two or more re-pitch units (U1, U2) for intermittently picking up the plurality of parts from the part transfer unit (UT) and intermittently placing the plurality of parts on the base material (B), wherein: each of the two or more re-pitch units (U1, U2) includes two pads (P1 to P4), each of which picks up one of the plurality of parts, accelerates until placing the one on the base material (B), and decelerates after the placement; each of the re-pitch units (U1, U2) includes one servo motor (M) for rotating one of the two pads (P1 to P4) and another servo motor (M) for rotating another one of the two pads (P1 to P4), and does not include three or more servo motors (M); and the two pads (P1 to P4) of each of the re-pitch units (U1, U2) rotate about a common axis. each of the two or more re-pitch units (U1, U2) includes two pads (P1 to P4), each of which picks up one of the plurality of parts, accelerates until placing the one on the base material (B), and decelerates after the placement; each of the re-pitch units (U1, U2) includes one servo motor (M) for rotating one of the two pads (P1 to P4) and another servo motor (M) for rotating another one of the two pads (P1 to P4), and does not include three or more servo motors (M); and the two pads (P1 to P4) of each of the re-pitch units (U1, U2) rotate about a common axis.
Method for operating an electric traction drive system that comprises an electric motor that is designed as a three-phase current machine and a battery having a plurality of battery strings in each of which a plurality of battery modules are arranged, which battery modules are each able to be selectively connected with respect to the output terminals of a respective battery string of positive polarity or negative polarity or bypassed in the respective battery string, such that each battery string delivers a settable output voltage, wherein the battery modules are monitored for correct operation during operation, and if a technical fault with at least one connected battery module is detected, the at least one battery module is bypassed and the traction drive system is put into a transition state in which the electric motor continues to be supplied by the remaining connected battery modules of the battery strings , characterized in that , in this transition state, the torque-forming current component of the stator current of the electric motor is immediately set to zero by way of field-oriented control such that the electric motor does not generate any torque.
High-speed transport module, containing a streamlined body with seamlessly mating front and rear portions and two trains of wheels located in the bottom portion of body , wherein the front and rear portions of body are cone-shaped with non-rectilinear generatrices having alternating-sign camber or the totality of rectilinear and non-rectilinear sections, arranged with alternating-sign directivity, whereby the angle γ,°, between the longitudinal axis of body and the line tangent to the generatrix in longitudinal section, in both front and rear portions of body , does not exceed 30°, characterized in that the conjugation line of surfaces of negative camber in the front portion of body is located - from the conjugation line between the front and rear portions of body - at the distance L PP , m, limited by the ratio: 0,05 ≤ L PP / L PPZ ≤ 0,75 , the conjugation line of surfaces of negative camber in the rear portion of body is located - from the conjugation line between the front and rear portions of body - at the distance L PZ , m, limited by the ratio: 0,05 ≤ L PZ / L PPZ ≤ 0,75 , where L PPZ , m, - length of the portion of body between the conjugation lines of surfaces of negative camber in the front and rear portions of body , and length L K , m, of body and its height H 1 , m, in cross section along the conjugation line between the front and rear portions of body are connected by the ratio: 2 ≤ L K / H 1 ≤ 20 , wherein the area S PZ , m 2 , of cross-section of body along the conjugation line between the front and rear portions of body , and the area S P , m 2 , of cross-section along the conjugation line of surfaces of reverse camber in the front portion of body , are connected by the ratio: 1,2 ≤ S PZ / S P ≤ 20 , and wherein the area S PZ , m 2 , of cross-section of body along the conjugation line between the front and rear portions of body , and the area S Z , M 2 , of cross-section along the conjugation line of surfaces of reverse camber in the rear portion of body , are connected by the ratio: 1,2 ≤ S PZ / S Z ≤ 20 , and wherein the lengths of the front and rear portions of body are connected by the ratio: 0,25 ≤ L P / L Z ≤ 4 , where L P , m - length of the front portion of body from the foremost point to the conjugation line between front portion and rear portion of body ; L Z , M - length of the rear portion of body from the rearmost point to the conjugation line between the rear portion and the front portion of body .
A topical skin care composition comprising a dermatologically acceptable vehicle and a combination of an effective amount of the following ingredients: an Echinacea purpurea extract, a Silybum marianum extract, glycerin, and a mixture comprising cetylhydroxyproline palmitamide/stearic acid/ Brassica campestris (rapeseed) sterols, wherein the Echinacea purpurea extract is an aqueous extract from the whole plant, and wherein the Silybum marianum extract is an aqueous extract from the fruit.
Device for securing a step iron in a concrete wall , comprising two anchor sleeves which are provided in the concrete wall and receive two parallel anchor bolts of the U-shaped step iron in a form-fitting manner, and comprising a latching device which is provided between the coupling parts formed on the one hand by the anchor sleeves and on the other hand by the anchor bolts and consists of at least one latching tongue , which is resilient in the radial direction, on one of these coupling parts and of a latching recess , which receives the latching tongue , on the other coupling part , and a run-on surface for the latching tongue adjoins the latching recess at least in a circumferential direction, said run-on surface being inclined in the circumferential direction and extending in the radial direction over the engagement depth of the latching tongue , characterised in that the at least one resilient latching tongue is provided on an open spring ring which is inserted for conjoint rotation into a circumferential groove of the associated coupling part .
A semiconductor construction comprising a vertical stack of memory units over a semiconductor substrate ; individual memory units each comprising a memory element , a wordline , a bitline and at least one diode and adjacent memory units of the vertical stack being spaced from one another by at least one passivation material and wherein individual diodes comprise a diode dielectric stack comprising at least a first, a second and a third different dielectric material , the second dielectric material being adjacent to the first dielectric material and the third dielectric material being adjacent to the second dielectric material, the first, second and third dielectric materials being positioned such that band gaps enable tunnelling of carriers in one direction but restrict carriers tunnelling in the opposite direction, the diode dielectric stack being oriented to direct current flow either toward or away from wordline and to restrict current flow in the opposite direction; the wordline comprising a first conductive material beneath the three adjacent dielectric materials; and an electrode comprising a second conductive material over the three adjacent dielectric materials.
A sole structure for an article of footwear , the sole structure comprising: a first plate ; a fluid-filled bladder supported on the first plate ; a second plate supported on the fluid-filled bladder with the fluid-filled bladder disposed between the first plate and the second plate ; and wherein the first plate ascends rearward of the fluid-filled bladder and the second plate descends rearward of the fluid-filled bladder with a posterior portion of the first plate above a posterior portion of the second plate rearward of the fluid-filled bladder , the sole structure further comprising a midsole unit extending in a heel region of the sole structure ; wherein the midsole unit has a through hole in the heel region ; and wherein the posterior portion of the first plate extends through the through hole in the midsole unit and is seated on a foot-facing surface of the midsole unit. a first plate ; a fluid-filled bladder supported on the first plate ; a second plate supported on the fluid-filled bladder with the fluid-filled bladder disposed between the first plate and the second plate ; and wherein the first plate ascends rearward of the fluid-filled bladder and the second plate descends rearward of the fluid-filled bladder with a posterior portion of the first plate above a posterior portion of the second plate rearward of the fluid-filled bladder , the sole structure further comprising a midsole unit extending in a heel region of the sole structure ; wherein the midsole unit has a through hole in the heel region ; and wherein the posterior portion of the first plate extends through the through hole in the midsole unit and is seated on a foot-facing surface of the midsole unit.
Use of a plated steel sheet as a heat absorbing/radiating steel sheet, the plated steel sheet comprising a steel sheet and a hot-dip plating layer disposed on a surface of the steel sheet, wherein the plated steel sheet has an emissivity of 0.4 or more, the hot-dip plating layer contains zinc, 1.0 to 22.0 mass% of aluminum, 1.3 to 10.0 mass% of magnesium, and both oxides and hydroxides of all of zinc, aluminum and magnesium, the oxides and the hydroxides having a lattice defect and being distributed in a lamellar form, an area of a portion of the oxides and the hydroxides in a field of view with 20 mm length in a cross section of the plated steel sheet is 0.01 mm 2 or more, and a ratio of an area of a portion of the oxides and the hydroxides to an area of the hot-dip plating layer in the cross section is 95% or less.
Device for monitoring pain of a user , comprising: - a receiving unit for receiving an accelerometer signal from an accelerometer sensor to be worn in use by the user , wherein the accelerometer signal comprises components of a pulse signal and components of a respiration signal ; and - a processing unit which is configured to: - derive the pulse signal and the respiration signal from the accelerometer signal; - adapt the pulse signal based on the respiration signal in order to obtain a corrected pulse signal ; and - derive a pain descriptor based on the corrected pulse signal . - a receiving unit for receiving an accelerometer signal from an accelerometer sensor to be worn in use by the user , wherein the accelerometer signal comprises components of a pulse signal and components of a respiration signal ; and - a processing unit which is configured to: - derive the pulse signal and the respiration signal from the accelerometer signal; - adapt the pulse signal based on the respiration signal in order to obtain a corrected pulse signal ; and - derive a pain descriptor based on the corrected pulse signal . - derive the pulse signal and the respiration signal from the accelerometer signal; - adapt the pulse signal based on the respiration signal in order to obtain a corrected pulse signal ; and - derive a pain descriptor based on the corrected pulse signal .
A method for the transduction of cells including lymphocytes, T cells, or other adult human cells such as hematopoietic stem cells, by the addition of a virus, the method comprising the following steps: a) preconditioning a cell-based product comprising said cells by performing a washing procedure in order to remove unwanted elements, for example in a wash buffer, and optionally hydrating said washed cells by adding biological nutriments; b) diluting the preconditioned cells in a solution containing the virus to be transducted into said cells; c) spinning the cells, in a centrifugal processing chamber containing an axially movable piston , thereby separating said cells to the external surface of the centrifugal processing chamber and spreading the virus in the solution and causing close contact of the virus with the cells to initiate the transduction process of the cells with the virus, wherein the centrifugal processing chamber is part of a disposable set constituting an enclosed sterile environment; and d) optionally introducing further solution to the transducted cells to provide a target volume, wherein the method further comprises monitoring the position of the movable piston by an infrared sensor while carrying out said method. a) preconditioning a cell-based product comprising said cells by performing a washing procedure in order to remove unwanted elements, for example in a wash buffer, and optionally hydrating said washed cells by adding biological nutriments; b) diluting the preconditioned cells in a solution containing the virus to be transducted into said cells; c) spinning the cells, in a centrifugal processing chamber containing an axially movable piston , thereby separating said cells to the external surface of the centrifugal processing chamber and spreading the virus in the solution and causing close contact of the virus with the cells to initiate the transduction process of the cells with the virus, wherein the centrifugal processing chamber is part of a disposable set constituting an enclosed sterile environment; and d) optionally introducing further solution to the transducted cells to provide a target volume,
Process for manufacturing a mousse for vehicle tyres , comprising: - continuously extruding an expanding elastomeric compound in an extruder having an extruder head configured to generate an annular elongated extruded piece ; - cutting said annular elongated extruded piece so as to form an annular semi-finished product ; - vulcanizing said semi-finished product inside a press so as to provide said semi-finished product with a substantially circular cross section; - heating the vulcanized semi-finished product inside an expansion furnace so as to allow the expansion of said expanding elastomeric compound and provide said semi-finished product with a desired toroidal configuration. - continuously extruding an expanding elastomeric compound in an extruder having an extruder head configured to generate an annular elongated extruded piece ; - cutting said annular elongated extruded piece so as to form an annular semi-finished product ; - vulcanizing said semi-finished product inside a press so as to provide said semi-finished product with a substantially circular cross section; - heating the vulcanized semi-finished product inside an expansion furnace so as to allow the expansion of said expanding elastomeric compound and provide said semi-finished product with a desired toroidal configuration.
A compound of the following formula: wherein the compound is a crystalline form A which has peaks at a diffraction angle 2θ of 6.1°±0.2°, 9.3°±0.2°, 11.1°±0.2°, 12.2°±0.2°, 15.3°±0.2°, 16.7°±0.2°, 21.6°±0.2°, 22.9°±0.2° in X-ray diffraction pattern.