mhurhangee/ep-ind-claims huggingface dataset:
A refrigerant channel switching unit, comprising: a channel switching valve (EV1, EV2, EV3) configured to switch, by electric control, channels of a refrigerant in a refrigerant circuit of an air conditioner; and a unit case housing the channel switching valve (EV1, EV2, EV3), the unit case including a case body having one open face, and an electrical component box being detachably attached to the one open face of the case body and housing an electrical component controlling the channel switching valve (EV1, EV2, EV3), wherein the electrical component box is attachable to the case body at a first position, where the electrical component box blocks the one open face of the case body entirely, and a second position, where a maintenance opening is formed in a part of the one open face of the unit case, and the refrigerant channel switching unit further comprises a fastener for attaching the electrical component box to the case body at the first position, and a temporary retaining mechanism for temporarily retaining the electrical component box at the second position, the second position of the electrical component box is below the first position, and characterized in that the electrical component box is provided with a wire holder holding, an internal wire connected to the electrical component in the electrical component box and the channel switching valve (EV1, EV2, EV3), and that the wire holder is provided to hold the internal wire at a position above the channel switching valve (EV1, EV2, EV3) when the electrical component box is attached to the case body at the first position. a channel switching valve (EV1, EV2, EV3) configured to switch, by electric control, channels of a refrigerant in a refrigerant circuit of an air conditioner; and a unit case housing the channel switching valve (EV1, EV2, EV3), the unit case including a case body having one open face, and an electrical component box being detachably attached to the one open face of the case body and housing an electrical component controlling the channel switching valve (EV1, EV2, EV3), wherein the electrical component box is attachable to the case body at a first position, where the electrical component box blocks the one open face of the case body entirely, and a second position, where a maintenance opening is formed in a part of the one open face of the unit case, and the refrigerant channel switching unit further comprises a fastener for attaching the electrical component box to the case body at the first position, and a temporary retaining mechanism for temporarily retaining the electrical component box at the second position, the second position of the electrical component box is below the first position, and characterized in that the electrical component box is provided with a wire holder holding, an internal wire connected to the electrical component in the electrical component box and the channel switching valve (EV1, EV2, EV3), and that the wire holder is provided to hold the internal wire at a position above the channel switching valve (EV1, EV2, EV3) when the electrical component box is attached to the case body at the first position.
Telecentric lens, comprising a front optical group adapted to receive rays coming from an observed object, a rear optical group, adapted to convey said rays towards an image plane of a sensor, and a lens aperture positioned between the front optical group and the rear optical group, wherein the lens aperture lies on the focal plane at least of the front optical group, wherein the front optical group is devoid of lenses and consists of a concave curved primary mirror adapted to receive and reflect the rays coming from the observed object, and at least one secondary mirror adapted to receive and reflect towards the rear optical group the rays coming from the primary mirror, wherein the reflective surface of the primary mirror is an ellipsoidal cap portion, characterized in that the primary mirror is made by electroforming in one piece and comprises, around a curve and concave reflective surface, a flat peripheral plate (202") that serves as a reference and mounting surface, said peripheral reference and mounting plate (202") being mounted on a main plate to which are fixed support arms (208, 209) of a secondary plate which supports the secondary mirror.
A compound of formula: or a pharmaceutically acceptable salt for use in treating a brain cancer and/or preventing recurrence of a brain cancer, wherein: X is C 1, C 2 or C 3 alkyl, or C 2 or C 3 alkenyl; Y is CH 2; W is O, S or NH; Z is NH orO; R 1 is a halo, aryl or heteroaryl group, which aryl or heteroaryl group is optionally substituted with one or more groups selected from halogen, OH, =O, SH, SO 3 H,NH 2, N-alkyl, NH-alkyl, N 3, NO 2, alkyl, alkenyl or heteroalkyl; wherein said aryl represents an aromatic group that contains one or more rings containing from 6 to 14 ring carbon atoms, and wherein said heteroaryl represents an aromatic group that contains one or more rings containing from 5 to 14 ring atoms and comprises one or more nitrogen atoms; Ar is a phenyl group; R 2 is H, OH, NH 2 or NO 2. X is C 1, C 2 or C 3 alkyl, or C 2 or C 3 alkenyl; Y is CH 2; W is O, S or NH; Z is NH orO; R 1 is a halo, aryl or heteroaryl group, which aryl or heteroaryl group is optionally substituted with one or more groups selected from halogen, OH, =O, SH, SO 3 H,NH 2, N-alkyl, NH-alkyl, N 3, NO 2, alkyl, alkenyl or heteroalkyl; wherein said aryl represents an aromatic group that contains one or more rings containing from 6 to 14 ring carbon atoms, and wherein said heteroaryl represents an aromatic group that contains one or more rings containing from 5 to 14 ring atoms and comprises one or more nitrogen atoms; Ar is a phenyl group; R 2 is H, OH, NH 2 or NO 2.
A method implemented by one or more processors, comprising: determining a total spatial length of a group of data points, being a total length along a trajectory that passes through each of the data points, the group of data points generated based on sensor data from one or more sensors of a robot during physical manipulation of the robot, the physical manipulation being by a user to traverse a reference point of the robot from an initial point to a target point; generating a potential gradient based on the total spatial length, wherein generating the potential gradient based on the total spatial length comprises: calculating the potential gradient as a function of the total spatial length, an average damping of the group of data points, and a total time of the group of data points along the trajectory; assigning the potential gradient to each of the data points of the group of data points; generating a control policy that regulates both robot motion and robot interaction with an environment, wherein generating the control policy comprises using the data points with the assigned potential gradient in learning a non-parametric potential function for use in the control policy, the non-parametric potential function having a global minimum based on the target point; and controlling the robot or an additional robot based on the control policy. determining a total spatial length of a group of data points, being a total length along a trajectory that passes through each of the data points, the group of data points generated based on sensor data from one or more sensors of a robot during physical manipulation of the robot, the physical manipulation being by a user to traverse a reference point of the robot from an initial point to a target point; generating a potential gradient based on the total spatial length, wherein generating the potential gradient based on the total spatial length comprises: calculating the potential gradient as a function of the total spatial length, an average damping of the group of data points, and a total time of the group of data points along the trajectory; assigning the potential gradient to each of the data points of the group of data points; generating a control policy that regulates both robot motion and robot interaction with an environment, wherein generating the control policy comprises using the data points with the assigned potential gradient in learning a non-parametric potential function for use in the control policy, the non-parametric potential function having a global minimum based on the target point; and controlling the robot or an additional robot based on the control policy.
An aerosol-generating article (1, 102) for producing an aerosol upon heating, the aerosol-generating article comprising: a rod of aerosol-forming substrate comprising an aerosol former, the aerosol-forming substrate having an aerosol former content of greater than 10 percent on a dry weight basis; and a filter positioned downstream of the rod of aerosol-forming substrate; wherein the rod of aerosol-forming substrate and the filter are assembled within a wrapper, the aerosol-generating article comprising first (15, 215) and second (115, 315) air ingress zones located on the wrapper, the first and second air ingress zones each configured to allow the ingress of air into the interior of the aerosol-generating article; further wherein the second air ingress zone is located at a position at least 1.5 mm downstream of the first air ingress zone. a rod of aerosol-forming substrate comprising an aerosol former, the aerosol-forming substrate having an aerosol former content of greater than 10 percent on a dry weight basis; and a filter positioned downstream of the rod of aerosol-forming substrate; wherein the rod of aerosol-forming substrate and the filter are assembled within a wrapper, the aerosol-generating article comprising first (15, 215) and second (115, 315) air ingress zones located on the wrapper, the first and second air ingress zones each configured to allow the ingress of air into the interior of the aerosol-generating article; further wherein the second air ingress zone is located at a position at least 1.5 mm downstream of the first air ingress zone.
A large-size scanner system with at least two image capturing elements arranged in a cascade-like manner, a contact surface arranged in front of the scan template, preferably a glass pane, as well as at least two reflector rollers arranged opposite the image capturing elements arranged in a cascade-like manner, which rollers are pressed against the glass pane and/or the scan template by means of spring-loaded elements arranged on the sides of the reflector rollers, characterised in that a separately mounted reflector roller is allocated to each image capturing element, in that each reflector roller exceeds the width of the oppositely arranged image capturing element on both sides by an amount, which essentially is formed by the width of a reflector roller area comprising a larger diameter compared to the centre area of the reflector roller covering the image capturing element as well as the respective widths of a reflector roller bearing, and in that a defined gap is set between the reflector roller in the area of the smaller diameter and the glass pane for receiving the scan template.
A propellant-free sterile pharmaceutical formulation for the prevention and/or treatment of a respiratory disease selected from asthma and chronic obstructive pulmonary disease by nebulisation to the lungs, said formulation comprising micronized particles of beclometasone dipropionate suspended in an aqueous solution at a concentration of 0.04% w/v, wherein i) no more than 10% of said suspended particles have a volume diameter [d(v,0.1)] lower than 0.7 micron, ii) no more than 50% of said particles have a volume diameter [d(v,0.5)] comprised between 1.6 micron and 1.8 micron; and iii) at least 90% of said particles [d(v,0.9)] have a volume diameter equal to or lower than 4.0 micron, and wherein said particles have a particle size span, defined as [d(v,0.9) - d(v,0.1)]/d(v,0.5), comprised between 1.8 and 2.1; wherein said volume diameters are measured by laser diffraction.
A method comprising: executing, with a routing component of a router (28, 36, 120), routing protocols to communicate routing information with peer routing devices (28, 36, 120); maintaining, with the routing component, routing information that describes a topology of a network in accordance with the routing information; programming a plurality of forwarding components (130 A-N) coupled to the routing component with forwarding information based on the routing information, wherein the forwarding information controls forwarding of network packets by the respective forwarding component; scheduling, with a scheduler executing on an optical interface of an interface card installed within one of the forwarding components, upstream communication by a plurality of customer premise equipment -CPEs- (32, 38) coupled to the optical interface; outputting, with the optical interface and in accordance with the schedule, an unmodulated optical receive signal to the CPEs for upstream communication by the plurality of CPEs; and receiving the upstream communications from the CPEs in accordance with the schedule and routing the upstream communications in accordance with the routing information. executing, with a routing component of a router (28, 36, 120), routing protocols to communicate routing information with peer routing devices (28, 36, 120); maintaining, with the routing component, routing information that describes a topology of a network in accordance with the routing information; programming a plurality of forwarding components (130 A-N) coupled to the routing component with forwarding information based on the routing information, wherein the forwarding information controls forwarding of network packets by the respective forwarding component; scheduling, with a scheduler executing on an optical interface of an interface card installed within one of the forwarding components, upstream communication by a plurality of customer premise equipment -CPEs- (32, 38) coupled to the optical interface; outputting, with the optical interface and in accordance with the schedule, an unmodulated optical receive signal to the CPEs for upstream communication by the plurality of CPEs; and receiving the upstream communications from the CPEs in accordance with the schedule and routing the upstream communications in accordance with the routing information.
A method for manufacturing a multi-elements doped zinc oxide film, comprising following steps: mixing Ga 2 O 3 powder, Al 2 O 3 powder, SiO 2 powder, and ZnO powder, sintering the resulted mixture to give a target, wherein the said Ga 2 O 3 powder accounts for 0.5%-10% of the total weight, the said Al 2 O 3 powder accounts for 0.5%-5% of the total weight, the said SiO 2 powder accounts for 0.5%-1.5% of the total weight, and the rest is ZnO powder; loading the said target into a magnetron sputtering chamber, then evacuating the said chamber, and setting the operating pressure within the range of 0.2 Pa to 5 Pa, then inletting a mixed gas of an inert gas and a hydrogen gas into the said chamber at a flow rate of 15sccm to 25sccm, and sputtering on a substrate to give a multi-elements doped zinc oxide film, wherein the power of the said sputtering is in the range of 40W to 200W. mixing Ga 2 O 3 powder, Al 2 O 3 powder, SiO 2 powder, and ZnO powder, sintering the resulted mixture to give a target, wherein the said Ga 2 O 3 powder accounts for 0.5%-10% of the total weight, the said Al 2 O 3 powder accounts for 0.5%-5% of the total weight, the said SiO 2 powder accounts for 0.5%-1.5% of the total weight, and the rest is ZnO powder; loading the said target into a magnetron sputtering chamber, then evacuating the said chamber, and setting the operating pressure within the range of 0.2 Pa to 5 Pa, then inletting a mixed gas of an inert gas and a hydrogen gas into the said chamber at a flow rate of 15sccm to 25sccm, and sputtering on a substrate to give a multi-elements doped zinc oxide film, wherein the power of the said sputtering is in the range of 40W to 200W.
A method for ionising and identifying gases, in which the gases to be identified are ionised in a reaction chamber and the product ions are measured, wherein the measurement of the product ions takes place by exposing the product ions to electric fields and the detection is carried out using a detector for ions, characterised in that the ionisation takes place by means of UV radiation, and in that an ionisation by means of electron bombardment or X-ray radiation takes place simultaneously or one after the other, wherein the electrons from an electron source a) are accelerated onto an electron window, pass through the window or/and are braked at the window and generate braking radiation, and molecules are ionised in the reaction chamber, and/or b) are accelerated onto a second electron window, pass through the window and generate UV rays in a high-pressure chamber, the UV rays pass through a UV-permeable window and molecules are ionised in the reaction chamber. a) are accelerated onto an electron window, pass through the window or/and are braked at the window and generate braking radiation, and molecules are ionised in the reaction chamber, and/or b) are accelerated onto a second electron window, pass through the window and generate UV rays in a high-pressure chamber, the UV rays pass through a UV-permeable window and molecules are ionised in the reaction chamber.
A method for cleaning a skid of a surface roughness tester including the skid provided with a skid aperture in a vertical direction, and a stylus disposed in the skid aperture of the skid and capable of moving in the vertical direction, wherein the surface roughness tester measures surface roughness of an object by moving the skid along a surface of the object, the method comprising: making a suction pad touch an under surface of the skid and an end of the stylus; and suctioning the air in the skid through the skid aperture, by this suctioning a foreign substance existing in a gap between the skid aperture and the stylus, the foreign substance including a fluid coolant and a solid-formed or semisolid-formed coolant, so that the solid-formed or semisolid-formed coolant remains on the suction pad and the fluid coolant drops, thereby removing said foreign substance existing in the gap after measuring the surface roughness of the object. making a suction pad touch an under surface of the skid and an end of the stylus; and suctioning the air in the skid through the skid aperture, by this suctioning a foreign substance existing in a gap between the skid aperture and the stylus, the foreign substance including a fluid coolant and a solid-formed or semisolid-formed coolant, so that the solid-formed or semisolid-formed coolant remains on the suction pad and the fluid coolant drops, thereby removing said foreign substance existing in the gap after measuring the surface roughness of the object.
An in vitro method of collecting information useful in predicting clinical outcome in a subject, wherein the subject has or is suspected of having an inflammatory disease, the method comprising providing a sample from said subject, and determining the level of octameric PTX3 in said sample, wherein determining the level of octameric PTX3 comprises measuring the total amount of PTX3 present, and measuring the amount of octameric PTX3 present, and calculating the proportion of total PTX3 which is present as octamer, wherein if the proportion of octameric PTX3 is greater than 50%, the subject is identified as a likely non-survivor.
A force measurement mechanism comprising a first force input member and a second force input member (105, 106, 205, 206 711, 713), the first and second force input members being spaced apart in a force direction; a pair of cantilever springs (101, 102, 201a, 201b, 202a, 202b, 702), a force measuring means (107, 230, 712) coupled to at least one of the force input members (105, 106, 205, 206, 711, 713), first constraining means and second constraining means (103, 104, 203a, 203b, 204, 704, 705, 706, 707), wherein a first portion of each cantilever spring is held by the first constraining means and a second portion of each cantilever spring is held by the second constraining means, and wherein each of the cantilever springs has an unconstrained length between the first and second constraining means that is free to bend, the constraining means hold the cantilever springs in a parallel arrangement spaced apart in the force input direction, the force input members are attached via the constraining means so that relative movement of the force input members bends the cantilever springs, and the force measuring means is arranged to measure force applied in the force input direction between the force input members, characterised in that the force input members (105, 106, 205, 205, 711, 713) form a hand-grip arranged to fit within a person's hand, and are each attached to a respective one of the constraining means (103, 104, 203a, 203b, 204, 704, 705, 706, 707) and extend parallel to the cantilever springs (101, 102, 201a, 201b, 202a, 202b, 702) and are spaced apart from them in an unloaded state, whereby the force input members remain substantially parallel when a force is applied between them.
Medical deformation device for a medical article, said deformation device comprising a receptacle for fixing the article, a deformation tool used to act on the article for deformation purposes, the deformation tool being movable in a defined manner relative to the receptacle, and a medical marking device (32, 34, 36, 38) that is detectable by a navigation system is held in each case on the receptacle and on the deformation tool for the purposes of determining a relative position of the deformation tool and the receptacle, and wherein a further marking device (32, 34, 36, 38) is fixed to the deformation tool for the purposes of determining, by means of the navigation system, an extent of a deformation of the article.