mhurhangee/ep-ind-claims huggingface dataset:
Glass substrate comprising a glass sheet provided, on at least part of at least one of its faces, with a porous antireflective layer, said layer predominantly comprising silicon oxide, SiO 2, present in the form (i) of a matrix of sol-gel type and (ii) of particles; characterized in that said layer also comprises aluminum oxide in an amount, expressed in the form of Al 2 O 3, of greater than or equal to 2.5% and less than or equal to 4.1% by weight, and in that it also comprises at least 60% by weight of particles and not more than 75% by weight of particles, more preferentially not more than 70% by weight of particles and most preferentially not more than 65% by weight of particles relative to the total weight of silicon oxide.
A cooling tower (10, 200) comprising: a cooling tower structure (12, 202); fill material supported by the cooling tower structure (12, 202) and configured to receive heated process fluid; an electric motor (16, 206) mounted to the cooling tower structure (12, 202), the motor (16, 206) comprising a casing (18, 208) and a rotatable shaft (20, 210), the motor (16, 206) being sealed to prevent fluids, moisture, foreign particles and contaminants from entering the casing (18, 208); a fan (26, 216) directly connected to the rotatable shaft (20, 210) of the motor (16, 206), wherein rotation of the rotatable shaft (20, 210) rotates the fan (26, 216) thereby inducing an upward moving mass flow of cool air through the fill material; a basin attached to the cooling tower structure for collecting cooled fluid; a fluid distribution system (24, 300) to distribute the cooled fluid in the basin, the fluid distribution system (24, 300) comprising a pumping device to pump cooled fluid from the basin, fluid piping (30, 32, 302) to receive the pumped cooled fluid and at least one fluid spray device (40, 50, 310) fluidly connected to the fluid piping (30, 32, 302) for spraying fluid on the casing (18, 208) of the motor (16, 206) so as to cause a transfer of heat from the casing (18, 208) to the fluid. a cooling tower structure (12, 202); fill material supported by the cooling tower structure (12, 202) and configured to receive heated process fluid; an electric motor (16, 206) mounted to the cooling tower structure (12, 202), the motor (16, 206) comprising a casing (18, 208) and a rotatable shaft (20, 210), the motor (16, 206) being sealed to prevent fluids, moisture, foreign particles and contaminants from entering the casing (18, 208); a fan (26, 216) directly connected to the rotatable shaft (20, 210) of the motor (16, 206), wherein rotation of the rotatable shaft (20, 210) rotates the fan (26, 216) thereby inducing an upward moving mass flow of cool air through the fill material; a basin attached to the cooling tower structure for collecting cooled fluid; a fluid distribution system (24, 300) to distribute the cooled fluid in the basin, the fluid distribution system (24, 300) comprising a pumping device to pump cooled fluid from the basin, fluid piping (30, 32, 302) to receive the pumped cooled fluid and at least one fluid spray device (40, 50, 310) fluidly connected to the fluid piping (30, 32, 302) for spraying fluid on the casing (18, 208) of the motor (16, 206) so as to cause a transfer of heat from the casing (18, 208) to the fluid.
Machine for converting heat into mechanical energy comprising: • an expansion device producing mechanical energy from a flow of vapor of a fluid; • an evaporator (EVAP) in the form of a tank containing fluid present in vapor phase and in liquid phase, heated by a heat source (Sh) to a high temperature (Th) and configured to supply vapor to the expansion device; • a condenser (COND) in the form of a tank containing fluid present in vapor phase and in liquid phase, cooled by a heat sink (Sb) to a low temperature (Tb) and configured to condense the vapor discharged from the expansion device; • a liquid circuit connecting a liquid phase of the condenser to a liquid phase of the evaporator; characterized in that it further comprises: • a vapor circuit connecting a vapor phase of the evaporator to a vapor phase of the condenser; and • valves configured to, - during a first, active stroke, close the liquid and vapor circuits (VV, VL), and - during a second, inactive stroke, open the liquid and vapor circuits. • an expansion device producing mechanical energy from a flow of vapor of a fluid; • an evaporator (EVAP) in the form of a tank containing fluid present in vapor phase and in liquid phase, heated by a heat source (Sh) to a high temperature (Th) and configured to supply vapor to the expansion device; • a condenser (COND) in the form of a tank containing fluid present in vapor phase and in liquid phase, cooled by a heat sink (Sb) to a low temperature (Tb) and configured to condense the vapor discharged from the expansion device; • a liquid circuit connecting a liquid phase of the condenser to a liquid phase of the evaporator; • a vapor circuit connecting a vapor phase of the evaporator to a vapor phase of the condenser; and • valves configured to, - during a first, active stroke, close the liquid and vapor circuits (VV, VL), and - during a second, inactive stroke, open the liquid and vapor circuits. - during a first, active stroke, close the liquid and vapor circuits (VV, VL), and - during a second, inactive stroke, open the liquid and vapor circuits.
A method for determining an endoilluminator output comprising: establishing a lamp performance degradation factor of a lamp of an endoilluminator system; calculating an illuminator contribution as defined by the luminous flux output of the illuminator of the lamp and using the lamp performance degradation factor; characterised in that the method further comprises the steps of calculating a fiber contribution of one or more optical fibers of the endoilluminator system as a function of constant values and/or time-dependent values describing how well the optical fibers transmit light; and determining the endoilluminator output of the endoilluminator system from the illuminator contribution and the fiber contribution. establishing a lamp performance degradation factor of a lamp of an endoilluminator system; calculating an illuminator contribution as defined by the luminous flux output of the illuminator of the lamp and using the lamp performance degradation factor; characterised in that the method further comprises the steps of calculating a fiber contribution of one or more optical fibers of the endoilluminator system as a function of constant values and/or time-dependent values describing how well the optical fibers transmit light; and determining the endoilluminator output of the endoilluminator system from the illuminator contribution and the fiber contribution.
A method of managing a bundle that is remotely installed by a controller device in an open service gateway initiative OSGi-based controlled device, the method being executed by the controlled device and comprises: in response to a service event indicating that a device binding service that is provided by the bundle is registered in an OSGi service registry, generating binding information that is used to map the bundle to a controller device, by using the device binding service; and notifying (204, 405) an event to the controller device on a change in a life cycle of the bundle by using the generated binding information; wherein generating binding information comprises adding an identifier of the controller device to a bundle property of the bundle by using the device binding service. in response to a service event indicating that a device binding service that is provided by the bundle is registered in an OSGi service registry, generating binding information that is used to map the bundle to a controller device, by using the device binding service; and notifying (204, 405) an event to the controller device on a change in a life cycle of the bundle by using the generated binding information; wherein generating binding information comprises adding an identifier of the controller device to a bundle property of the bundle by using the device binding service.
A method of characterizing an FMR1 locus or an FMR2 locus in a DNA sample comprising the steps of: a) contacting a first portion of the sample with a methylation-sensitive DNase; b) adding a GC reference standard to the sample, wherein the reference standard (i) comprises a sequence having the formula 5'-A-B-C-3', wherein A and C represent sequences recognized by forward and reverse PCR primers and B is a GC-rich sequence, (ii) has at least 75% GC-richness, and (iii) has a relative retention time as measured by capillary electrophoresis of less than or equal to three CGG repeats; c) subjecting the first portion and a second portion of the sample, each containing the GC reference standard and forward and reverse PCR primers, to a DNA amplification reaction such that a target sequence of the FMR1 or FMR2 locus and the reference standard are amplified, wherein the amplified DNA in each portion is labeled with a different label; and d) analyzing the amplified DNA from the first and the second portion of the sample, thereby characterizing the percentage methylation and the number of CGG repeats present in the FMR locus, wherein step (d) comprises capillary electrophoresis. a) contacting a first portion of the sample with a methylation-sensitive DNase; b) adding a GC reference standard to the sample, wherein the reference standard (i) comprises a sequence having the formula 5'-A-B-C-3', wherein A and C represent sequences recognized by forward and reverse PCR primers and B is a GC-rich sequence, (ii) has at least 75% GC-richness, and (iii) has a relative retention time as measured by capillary electrophoresis of less than or equal to three CGG repeats; (i) comprises a sequence having the formula 5'-A-B-C-3', wherein A and C represent sequences recognized by forward and reverse PCR primers and B is a GC-rich sequence, (ii) has at least 75% GC-richness, and (iii) has a relative retention time as measured by capillary electrophoresis of less than or equal to three CGG repeats; c) subjecting the first portion and a second portion of the sample, each containing the GC reference standard and forward and reverse PCR primers, to a DNA amplification reaction such that a target sequence of the FMR1 or FMR2 locus and the reference standard are amplified, wherein the amplified DNA in each portion is labeled with a different label; and d) analyzing the amplified DNA from the first and the second portion of the sample, thereby characterizing the percentage methylation and the number of CGG repeats present in the FMR locus, wherein step (d) comprises capillary electrophoresis.
A process for preparing water-absorbing polymer particles, comprising i) classification of the water-absorbing polymer particles, the undersize being removed by means of a screen having the mesh size m 1, ii) surface postcrosslinking of the classified polymer particles, iii) classification of the surface postcrosslinked polymer particles, the undersize being removed by means of a screen having the mesh size m 2, and iv) recycling the undersize from step i) and iii), wherein the throughput per hour of water-absorbing polymer particles in the course of classification in step i) is at least 100 kg/h per m 2 of screen area and the mesh size m 1 in step i) is at least 50 μm greater than the mesh size m 2 in step iii). i) classification of the water-absorbing polymer particles, the undersize being removed by means of a screen having the mesh size m 1, ii) surface postcrosslinking of the classified polymer particles, iii) classification of the surface postcrosslinked polymer particles, the undersize being removed by means of a screen having the mesh size m 2, and iv) recycling the undersize from step i) and iii),
Electrical connection switching element with two electrically conductive contact elements (2a, 2b) and an electrically conductive contact piece for connecting the contact elements (2a, 2b), wherein the contact piece or a piston is movable along a path of movement and the connection switching element can thereby be transferred from an electrically disconnected state to an electrically connected state, wherein the contact piece is not electrically connected to any of the contact elements (2a, 2b) in the disconnected state and is electrically connected to both contact elements (2a, 2b) in the connected state, wherein the contact elements (2a, 2b) are designed such that together they form a receiving structure for the contact piece, so that in the connected state the contact elements (2a, 2b) engage around the contact piece from opposite sides (4a, 4b), characterized in that the connection switching element has a holding device which has a boundary on the inside, within which the contact elements (2a, 2b) are arranged, there being a gap between the boundary and the contact elements (2a, 2b) in an electrically disconnected state. wherein the contact piece or a piston is movable along a path of movement and the connection switching element can thereby be transferred from an electrically disconnected state to an electrically connected state, wherein the contact piece is not electrically connected to any of the contact elements (2a, 2b) in the disconnected state and is electrically connected to both contact elements (2a, 2b) in the connected state, wherein the contact elements (2a, 2b) are designed such that together they form a receiving structure for the contact piece, so that in the connected state the contact elements (2a, 2b) engage around the contact piece from opposite sides (4a, 4b), characterized in that the connection switching element has a holding device which has a boundary on the inside, within which the contact elements (2a, 2b) are arranged, there being a gap between the boundary and the contact elements (2a, 2b) in an electrically disconnected state.
Method for assisting a driver during a driving manoeuvre, in which in order to follow a trajectory (26, 28, 44), instructions for the implementation of necessary steering settings and for longitudinal guidance are either issued to the driver by a driving assistance system, or the steering settings and, if appropriate, the longitudinal guidance are carried out automatically by the driving assistance system, wherein a trajectory (26, 28, 44) which the driving assistance system receives by means of a communication unit from a unit (12, 42) which is independent of the vehicle in question is made available by the driving assistance system, characterized in that when an incompatibility of the received trajectory (26, 28, 44) with vehicle-specific parameters of the vehicle in question is determined, an alternative trajectory (26, 28, 44) is determined by the driving assistance system and made available.
A process of interesterifying oil containing one or more metal chelating agents comprising the steps of: a) contacting the oil with a base, and b) reacting said oil with a lipase, wherein steps a) and b) are carried out sequentially or simultaneously. a) contacting the oil with a base, and b) reacting said oil with a lipase,
System for connecting components, for interconnecting a first component to a second component where the system comprises: - a first body comprising: - a first attachment portion to attach the first body to the first component; and - a first connection portion; - a second body, comprising; - a second attachment portion for attaching the second body to the second component and - a second connection portion for, in cooperation with the first connection portion, connecting the first body to the second body according to a form closure; and - attachment means located in the bodies (1, 2) for fixing the bodies (1, 2) to their respective components; wherein the first connection portion includes first connection means, comprising a male wedge having a trapezoidal cross-section growing from a first end of smaller dimensions to a second end of greater dimensions; as well as the second connection portion includes a second connection means comprising a cavity having a trapezoidal cross-section corresponding to that of the male wedge for allocating the male wedge and providing a connection between the male wedge and the cavity in accordance with a form closure; wherein the male wedge further comprises restriction means for restricting by elastic deformation the relative longitudinal displacement of the first body and the second body with respect to each other, once they are connected; characterized in that the restriction means comprise connection protuberances located at the first end of the male wedge, and configured so as to protrude from the first end of the wedge out of the cavity. - a first body comprising: - a first attachment portion to attach the first body to the first component; and - a first connection portion; - a first attachment portion to attach the first body to the first component; and - a first connection portion; - a second body, comprising; - a second attachment portion for attaching the second body to the second component and - a second connection portion for, in cooperation with the first connection portion, connecting the first body to the second body according to a form closure; and - a second attachment portion for attaching the second body to the second component and - a second connection portion for, in cooperation with the first connection portion, connecting the first body to the second body according to a form closure; and - attachment means located in the bodies (1, 2) for fixing the bodies (1, 2) to their respective components;
Pressure sensor arrangement for detecting a pressure of a fluid medium in a measurement chamber, comprising a sensor housing, at least one sensor element which is arranged in or on the sensor housing in such a way that it can be subjected to the medium in order to measure a pressure of the medium, a pressure connection by means of which the pressure sensor arrangement can be mounted on or in the measurement chamber, and a housing base on which the sensor housing is arranged, wherein the housing base has at least one elastically deformable securing element for attaching the sensor housing to the housing base, wherein the sensor housing has at least one depression, wherein the securing element engages in the depression, wherein the housing base has a pressure-connection-side section and a sensor-housing-side section, wherein the sensor-housing-side section at least partially surrounds an outer side of the sensor housing, wherein the sensor-housing-side section is arranged coaxially with respect to the outer side of the sensor housing, wherein the securing element is arranged on the sensor-housing-side section, characterized in that the pressure connection has an outer thread, the housing base is embodied as a metal plate and is welded to the pressure connection, and the securing element is embodied as an elastically deformable clip, wherein the securing element extends in the direction of the pressure-connection-side section.
A method for preparing cheese in a continuous process, comprising (i) providing milk heated to 65-90°C, (ii) providing supplemental mass containing egg and/or sour milk, (iii) combining the heated milk and the supplemental mass to form a mixture, (iv) adding precipitation agent to the mixture, (v) heating the mixture to 65-95°C, and (vi) feeding the heated mixture to bottom of a reactor at the lowest part of the reactor, wherein the heated mixture coagulates and forms a cheese mass, which rises in the reactor, (vii) discharging the cheese mass containing all or substantially all of the whey from the top of the reactor from the highest part of the reactor, and (viii) recovering the cheese mass. (i) providing milk heated to 65-90°C, (ii) providing supplemental mass containing egg and/or sour milk, (iii) combining the heated milk and the supplemental mass to form a mixture, (iv) adding precipitation agent to the mixture, (v) heating the mixture to 65-95°C, and (vi) feeding the heated mixture to bottom of a reactor at the lowest part of the reactor, wherein the heated mixture coagulates and forms a cheese mass, which rises in the reactor, (vii) discharging the cheese mass containing all or substantially all of the whey from the top of the reactor from the highest part of the reactor, and (viii) recovering the cheese mass.
A random ligand library for screening a complex biological fluid comprising a compound of Formula I on a support, wherein R 1 is -(C 1 -C 6)SCH 3; R 2 is H; and R 3 -R 6 are independently selected from the groups consisting of H, -C 1 -C 6 alkyl, -C 1 -C 6 alkylSCH 3, -C 0 -C 6 alkylC 2 -C 6 alkenyl, -C 0 -C 6 alkyl C 2 -C 6 alkynyl, -C 1 -C 6 COOH, -C 1 -C 6 alkylOH, -C 1 -C 6 alkylN 2, -C 3 -C 8 cycloalkyl, -C 1 -C 6 alkylaryl, -C 1 -C 6 alkylheteroaryl, -C 1 -C 6 alkylNC C 1 -C 6 alkyl, -C 1 -C 6 alkylcycloamide wherein any of the aryl or heteroaryl groups may be independently substituted with -OH, Cl, F, Br, -OCH 3, -SO 2 NH 2 or -O-CH 2 -O-, and n is 3 to 11, and wherein said library comprises 200 000 to 150 million distinct ligands. R 1 is -(C 1 -C 6)SCH 3; R 2 is H; and R 3 -R 6 are independently selected from the groups consisting of H, -C 1 -C 6 alkyl, -C 1 -C 6 alkylSCH 3, -C 0 -C 6 alkylC 2 -C 6 alkenyl, -C 0 -C 6 alkyl C 2 -C 6 alkynyl, -C 1 -C 6 COOH, -C 1 -C 6 alkylOH, -C 1 -C 6 alkylN 2, -C 3 -C 8 cycloalkyl, -C 1 -C 6 alkylaryl, -C 1 -C 6 alkylheteroaryl, -C 1 -C 6 alkylNC C 1 -C 6 alkyl, -C 1 -C 6 alkylcycloamide wherein any of the aryl or heteroaryl groups may be independently substituted with -OH, Cl, F, Br, -OCH 3, -SO 2 NH 2 or -O-CH 2 -O-, and n is 3 to 11,
An allograft construct, comprising: a first tendon length (102 1) and a second tendon length (102 2), the first and second tendon lengths (102 1, 102 2) positioned longitudinally in parallel to one another; and a continuous flexible strand forming a whip stitched pattern and an anchor; the whip stitched pattern securing together the first and second tendon lengths (102 1, 102 2) at a free end, thereby forming a stitched end portion that abuts an unstitched middle portion, characterised in that the whip stitched pattern comprising a plurality of sutures that originate adjacent to the free end and progress toward the unstitched middle portion; wherein the plurality of sutures comprises at least a first suture (114 1) located at the free end and a final suture (114 5) located adjacent to the unstitched middle portion; and the anchor originates at the final suture (114 5) and threads through a center space between the first and second tendon lengths (102 1, 102 2) and out the free end of the stitched end portion. a first tendon length (102 1) and a second tendon length (102 2), the first and second tendon lengths (102 1, 102 2) positioned longitudinally in parallel to one another; and a continuous flexible strand forming a whip stitched pattern and an anchor; the whip stitched pattern securing together the first and second tendon lengths (102 1, 102 2) at a free end, thereby forming a stitched end portion that abuts an unstitched middle portion, characterised in that the whip stitched pattern comprising a plurality of sutures that originate adjacent to the free end and progress toward the unstitched middle portion; wherein the plurality of sutures comprises at least a first suture (114 1) located at the free end and a final suture (114 5) located adjacent to the unstitched middle portion; and the anchor originates at the final suture (114 5) and threads through a center space between the first and second tendon lengths (102 1, 102 2) and out the free end of the stitched end portion.
A polymer conjugate that inhibits angiogenesis, comprising an agent that inhibits angiogenesis conjugated to a polymer, wherein the agent that inhibits angiogenesis is selected from the group consisting of tetraiodothyroacetic acid (TETRAC) and triiodothyroacetic acid (TRIAC), and wherein the agent that inhibits angiogenesis binds to the cell surface receptor for thyroid hormone on integrin αvβ3, for use in the treatment of a condition amenable to inhibiting angiogenesis selected from the group consisting of a primary tumor, a metastatic tumor, and diabetic retinopathy.