mhurhangee/ep-ind-claims huggingface dataset:
A vapor compression system including a compressor having a bearing, a condenser, an evaporator and a lubrication additive recovery system, the lubrication additive recovery system comprising: a lubrication ring formed to define first and second through-holes (32, 33); a first system by which a portion of a required supply of lubrication is drawn from the condenser and provided to the bearing through the first through-holes; and a second system by which a remainder of the required supply of lubrication is recovered from the evaporator and provided along with compressor discharge gas to the bearing through the second through-holes. a lubrication ring formed to define first and second through-holes (32, 33); a first system by which a portion of a required supply of lubrication is drawn from the condenser and provided to the bearing through the first through-holes; and a second system by which a remainder of the required supply of lubrication is recovered from the evaporator and provided along with compressor discharge gas to the bearing through the second through-holes.
Crimp connection arrangement for pressurised pipes with a compression sleeve and a pipe, wherein an end piece of the pipe is insertable into the compression sleeve and wherein by a force application onto a pressing portion of the compression sleeve, a connection is achievable between the compression sleeve and the end piece of the pipe, wherein a separate, sleeve-like retaining element is provided between the compression sleeve and the end piece of the pipe, wherein the retaining element is made from a material of greater hardness than the compression sleeve and the pipe, and wherein the retaining element is reducible in its diameter at least partially by the force applied onto the pressing portion, wherein the retaining element comprises an inner serration on at least a portion of its inner surface and an outer serration on at least a portion of its outer surface, wherein the teeth of the inner serration are arranged in axial direction of the retaining element in a clearance between two adjacent teeth of the outer serration, characterised in that the retaining element is formed as a slotted sleeve, wherein the retaining element is radially stressed once the connection is achieved between the compression sleeve and the pipe, wherein the compression sleeve is plastically deformed after the force has been applied onto the pressing portion and the retaining element is crimped between the compression sleeve and the pipe in such a way, that the serrations (7, 11) have penetrated the inner surface of the compression sleeve and the outer surface of the pipe.
A top-loading washing machine comprising a tub. a perforated drum rotatably mounted within said tub about a horizontal axis and having an aperture on its cylindrical side, a drum door (14, 14a) slidably supported by the drum for opening and closing said aperture following a predetermined rotation of the drum, catching means (30, 50) supported by the tub and configured to selectively engage said sliding door for opening and closing thereof, characterized in that said drum comprises a flap hinged to an edge of said aperture of the drum and having first engaging portions configured to cooperate with second engaging portions of the sliding part, said catching means (30, 50) being also configured to cooperate with said flap in order to free it from the sliding part.
A method of generating a keypoint descriptor for identifying an object in an image or in a sequence of images, the keypoint descriptor being substantially invariant to a transformation of the object in the image, wherein the method includes: a) receiving object data representing an object for identification in an image, wherein object data comprises image patches in the case of object identification in an image or space-time image patches in the case of object identification in a sequence of images; b) processing said object data to generate at least one basis function representing a feature having undergone at least one transformation or a transformation sequence across several consecutive frames, using transformations that are out of the image plane to recognise objects from multiple views; c) modifying a prototype wavelet function based on said at least one basis function to generate a plurality of modified wavelet functions; d) comparing the plurality of modified wavelet functions with the at least one basis function; e) selecting a modified wavelet function of said plurality of modified wavelet functions based on the comparison of step d); and f) processing an input image or input orientation field according to said selected modified wavelet function to generate the keypoint descriptor. a) receiving object data representing an object for identification in an image, wherein object data comprises image patches in the case of object identification in an image or space-time image patches in the case of object identification in a sequence of images; b) processing said object data to generate at least one basis function representing a feature having undergone at least one transformation or a transformation sequence across several consecutive frames, using transformations that are out of the image plane to recognise objects from multiple views; c) modifying a prototype wavelet function based on said at least one basis function to generate a plurality of modified wavelet functions; d) comparing the plurality of modified wavelet functions with the at least one basis function; e) selecting a modified wavelet function of said plurality of modified wavelet functions based on the comparison of step d); and f) processing an input image or input orientation field according to said selected modified wavelet function to generate the keypoint descriptor.
Method for controlling the target approach of unmanned flying objects, chiefly drones that are capable of transporting goods, equipped with a mobile data link to receive control commands from a central processing unit, to a receiver which has a mobile device with a mobile data link, a display, at least one camera arranged on the opposite side of the display, and also have sensors to determine position, to determine the compass direction and angle of elevation, characterised by the following steps: - Determine a safe approach corridor by having the receiver use the preview picture that is shown on the display from the camera of his mobile device to select a section of the sky in which, from his position, the view is clear, and retain position, compass direction and angle of elevation for this orientation. - Find a fixed point in the sky on the central processing unit from which the target approach will commence, from the intersection of an imaginary line centred in the safe approach corridor and the flight level of the drone. - Autonomous approach of the fixed point by the drone. - Light signals emitted by the drone by means of a light source on the drone during the target approach. - During the target approach of the drone receive the light signals with the camera of the mobile device and register the current position of the drone relative to the orientation of the mobile device. - Compare in the central processing unit the registered current position of the drone with the previously determined fixed safe approach corridor and compute control signals to correct the drone position out of any deviations. - Transmit the control signals from the central processing unit to the drone, through the process of which a closed control loop is produced during the target approach. - Determine a safe approach corridor by having the receiver use the preview picture that is shown on the display from the camera of his mobile device to select a section of the sky in which, from his position, the view is clear, and retain position, compass direction and angle of elevation for this orientation. - Find a fixed point in the sky on the central processing unit from which the target approach will commence, from the intersection of an imaginary line centred in the safe approach corridor and the flight level of the drone. - Autonomous approach of the fixed point by the drone. - Light signals emitted by the drone by means of a light source on the drone during the target approach. - During the target approach of the drone receive the light signals with the camera of the mobile device and register the current position of the drone relative to the orientation of the mobile device. - Compare in the central processing unit the registered current position of the drone with the previously determined fixed safe approach corridor and compute control signals to correct the drone position out of any deviations. - Transmit the control signals from the central processing unit to the drone, through the process of which a closed control loop is produced during the target approach.
Non-return valve for use on a toilet, which is arranged between an inlet end and an opposite outlet end along a common longitudinal axis in this order - a seal seat formed by a rigid frame and - a sealing element formed by an elasticated closure part wherein the frame and the closure part in the region of the seal seat are formed matching in a funnel shape running towards the inlet end and the closure part is loaded against the frame in the region of the seal seat in a resting position of the non-return valve and is held therein, wherein the frame has openings in the region of the seal seat and the sealing element is formed in one piece with a venting device, wherein the venting device is formed by the closure part with a venting section projecting in sections through an opening of the frame and at a distance from the frame having a passage in the direction of the inlet end. - a seal seat formed by a rigid frame and - a sealing element formed by an elasticated closure part
A glass panel unit comprising: a first substrate including a first glass panel; a second substrate including a second glass panel and arranged to face the first substrate; and a frame-shaped sealing portion that is hermetically bonded to the first substrate and the second substrate so as to create an evacuated space between the first substrate and the second substrate, the first substrate having a principal part gently curving alongside of the second substrate, the first substrate having an extended part outwardly extending from one side of the principal part and arranged to stick out of an edge of the second substrate when viewed from a region where the second substrate is positioned with respect to the first substrate, the extended part including a mounting portion used to mount the glass panel unit onto a vehicle, the mounting portion comprising at least one mounting hole penetrating through the extended part, and the extended part being formed as a flat part. a first substrate including a first glass panel; a second substrate including a second glass panel and arranged to face the first substrate; and a frame-shaped sealing portion that is hermetically bonded to the first substrate and the second substrate so as to create an evacuated space between the first substrate and the second substrate, the first substrate having a principal part gently curving alongside of the second substrate, the first substrate having an extended part outwardly extending from one side of the principal part and arranged to stick out of an edge of the second substrate when viewed from a region where the second substrate is positioned with respect to the first substrate, the extended part including a mounting portion used to mount the glass panel unit onto a vehicle, the mounting portion comprising at least one mounting hole penetrating through the extended part, and the extended part being formed as a flat part.
A device (110, 112, 113) for a distributed antenna system (100, 200, 300), DAS, the device (110, 112, 113) comprising: downlink DAS circuitry (111, 118, 126) configured to transmit a downlink signal carrying communications received by the DAS (100, 200, 300) from one or more wireless communication system base stations in a downlink direction towards at least one antenna of the DAS (100, 200, 300); uplink DAS circuitry (121, 124, 128) configured to transmit an uplink signal carrying communications received from the at least one antenna in an uplink direction towards the one or more wireless communication system base stations; and a controller (130, 247, 252) configured to communicate with a first operator control panel via a cable; wherein the controller (130, 247, 252) is configured to synchronize status and setting information, SSI, changes between the first operator control panel and a second operator control panel via signals communicated over the DAS (100, 200, 300) with at least one of the downlink signal and the uplink signal. downlink DAS circuitry (111, 118, 126) configured to transmit a downlink signal carrying communications received by the DAS (100, 200, 300) from one or more wireless communication system base stations in a downlink direction towards at least one antenna of the DAS (100, 200, 300); uplink DAS circuitry (121, 124, 128) configured to transmit an uplink signal carrying communications received from the at least one antenna in an uplink direction towards the one or more wireless communication system base stations; and a controller (130, 247, 252) configured to communicate with a first operator control panel via a cable; wherein the controller (130, 247, 252) is configured to synchronize status and setting information, SSI, changes between the first operator control panel and a second operator control panel via signals communicated over the DAS (100, 200, 300) with at least one of the downlink signal and the uplink signal.
Method for preparing fluoroalkylnitriles of the general formula, in which X 1 and X 2 are mutually independently fluorine, chlorine, hydrogen or methyl, characterized in that fluorinated carboxamides of the formula in which X 1 and X 2 are as defined above, are reacted with phosphorus trichloride (PCl 3) and/or phosphorus oxychloride (POCl 3) in the presence of a base.
A process for recovering water, metals, soluble organics and insoluble organics in a mother liquor stream from the separation stage of a process for the production of a polycarboxylic acid, wherein the process comprises: (a) cooling the stream to a temperature at which dissolved organics precipitate; (b) separating the precipitated organics from a liquid stream and recycling said organics to the process for the production of the polycarboxylic acid; (c) the liquid stream from step (b) is then treated with an alkali to convert remaining organics to the alkali salt form and the metals present to be converted to an insoluble form; (d) recovering the insoluble metals from a liquid stream; (e) passing the liquid stream from step (d) comprising the alkali salts of the organics to a membrane separation unit where it is separated into a permeate comprising water and a retentate comprising water and alkali organic salts; (f) recovering the permeate and recycling same to the process for the production of the polycarboxylic acid; and (g) recovering the retentate and recycling the same to the feed to the separation unit. (a) cooling the stream to a temperature at which dissolved organics precipitate; (b) separating the precipitated organics from a liquid stream and recycling said organics to the process for the production of the polycarboxylic acid; (c) the liquid stream from step (b) is then treated with an alkali to convert remaining organics to the alkali salt form and the metals present to be converted to an insoluble form; (d) recovering the insoluble metals from a liquid stream; (e) passing the liquid stream from step (d) comprising the alkali salts of the organics to a membrane separation unit where it is separated into a permeate comprising water and a retentate comprising water and alkali organic salts; (f) recovering the permeate and recycling same to the process for the production of the polycarboxylic acid; and (g) recovering the retentate and recycling the same to the feed to the separation unit.
A polymer of the formula: where R is any alkyl group; and R 1 is one or more of: a fatty acid, or or or where R 2 is H, any alkyl group, or an ester chain, where R 3 is any alkyl group, and where R 4 is H, or CH 3, or mixtures thereof; wherein the polymer is capable of dispersing pigment in a carrier liquid; and wherein X is greater than or equal to 4, Y is 1 to 20, or Z is 5 to 60. a fatty acid, or or or where R 2 is H, any alkyl group, or an ester chain, where R 3 is any alkyl group, and where R 4 is H, or CH 3, or mixtures thereof; wherein the polymer is capable of dispersing pigment in a carrier liquid; and wherein X is greater than or equal to 4, Y is 1 to 20, or Z is 5 to 60.
An organic light-emitting device, comprising a first electrode and a hole injection layer which are laminated and form an ohmic contact therebetween, characterized in that materials of the hole injection layer comprise a first hole transport material and a P-type doping material, wherein the first hole transport material is: wherein the P-type doping material is selected from one or more of 2,3,5,6-tetrafluoro-7,7',8,8'-tetracyanodimethyl-p-benzoquinone (F 4 TCNQ), FeCl 3, MoO 3, and WO 3, wherein a mass ratio of the P-type doping material to the first hole transport material is from 1:100 to 1:10, wherein the hole injection layer has a thickness from 5 nm to 30 nm, and in that the organic light-emitting device further comprises a hole transport layer in ohmic contact with the hole injection layer, and a material of the hole transport layer is a second hole transport material having the following formula: Ar 1 and Ar 2 respectively representing a substituted or unsubstituted C5-C30 aromatic group; X representing O or S; L 1 representing a single bond or a C4 to C10 aromatic group; n≥1; R 1 to R 4 respectively representing a halogen atom, a carboxyl group, or a C1 to C30 aliphatic straight or branched hydrocarbon group. wherein the P-type doping material is selected from one or more of 2,3,5,6-tetrafluoro-7,7',8,8'-tetracyanodimethyl-p-benzoquinone (F 4 TCNQ), FeCl 3, MoO 3, and WO 3, wherein a mass ratio of the P-type doping material to the first hole transport material is from 1:100 to 1:10, wherein the hole injection layer has a thickness from 5 nm to 30 nm, and in that the organic light-emitting device further comprises a hole transport layer in ohmic contact with the hole injection layer, and a material of the hole transport layer is a second hole transport material having the following formula: Ar 1 and Ar 2 respectively representing a substituted or unsubstituted C5-C30 aromatic group; X representing O or S; L 1 representing a single bond or a C4 to C10 aromatic group; n≥1; R 1 to R 4 respectively representing a halogen atom, a carboxyl group, or a C1 to C30 aliphatic straight or branched hydrocarbon group.
An implantable, sub-cutaneous, bellows-like device with one plate proximal to the skin surface and the other plate distal to the skin surface comprising: an implantable internal pneumatic/hydraulic driver for an implantable medical device such as a cardiac assist, cardiac support, or combined cardiac assist and support device wherein the implantable pneumatic/hydraulic internal driver comprises: an internal distal plate comprising an inducible magnet material; a subcutaneous proximal plate; at least one bellows connecting the internal distal plate to the subcutaneous proximal plate and forming a bellows chamber; a fluid within the bellows chamber; and a fluid connection in the bellows chamber to connect the implantable pneumatic/hydraulic internal driver to an implantable medical device, characterized in, that the internal distal plate is configured to be magnetically drawn towards or repelled from the subcutaneous proximal plate by the action interaction between the inducible magnet material and an extracorporeal magnetic type driver, wherein the movement of the internal distal plate towards the subcutaneous proximal plate causes the at least one bellow to pressurize the fluid therein to drive the implantable medical device.
Serving tongs comprising: two tong limbs (12, 14) connected with each other rotatably relative to one another around a pivoting axis, the tong limbs being adapted at their front ends (12a, 14a) for seizing food, a spring for biasing the tong limbs (12, 14) into an opening position of the serving tongs, and a locking mechanism for locking the tong limbs (12, 14) in a closing position of the serving tongs against the bias of the spring, the first tong limb comprising an elongated hole, in which a locking pin is moveably guided, and a locking cam, which in the locked closed position of the serving tongs contacts the locking pin, being provided at the second tong limb, wherein locking and releasing the tong limbs (12, 14) is realized by simply pivoting the serving tongs in a substantially vertical position with the tong limbs brought close together, characterized in the locking mechanism being arranged behind the pivoting axis as seen from a front end (12a, 14a) of the tong limbs (12, 14). two tong limbs (12, 14) connected with each other rotatably relative to one another around a pivoting axis, the tong limbs being adapted at their front ends (12a, 14a) for seizing food, a spring for biasing the tong limbs (12, 14) into an opening position of the serving tongs, and a locking mechanism for locking the tong limbs (12, 14) in a closing position of the serving tongs against the bias of the spring, the first tong limb comprising an elongated hole, in which a locking pin is moveably guided, and a locking cam, which in the locked closed position of the serving tongs contacts the locking pin, being provided at the second tong limb, wherein locking and releasing the tong limbs (12, 14) is realized by simply pivoting the serving tongs in a substantially vertical position with the tong limbs brought close together, characterized in the locking mechanism being arranged behind the pivoting axis as seen from a front end (12a, 14a) of the tong limbs (12, 14).
A method for enabling data classification in a software application, the method comprising: a) installing an agent on each of a plurality of terminal devices, each of the plurality of terminal devices being configured to run the software application; b) providing a central management module which includes one or more classification policies to be enforced, and communicates with the agent that is installed on each of the plurality of terminal devices; c) distributing, by said central management module, the one or more classification policies to each agent; and d) applying said one or more classification policies to the software application, wherein the method is further characterized by: injecting, by the agent, a hooking code into the software application to override a save interface; displaying, by the agent, a modified save interface for saving a data item, the modified save interface including one or more buttons related to classification and applying the classification to the data item. a) installing an agent on each of a plurality of terminal devices, each of the plurality of terminal devices being configured to run the software application; b) providing a central management module which includes one or more classification policies to be enforced, and communicates with the agent that is installed on each of the plurality of terminal devices; c) distributing, by said central management module, the one or more classification policies to each agent; and d) applying said one or more classification policies to the software application, injecting, by the agent, a hooking code into the software application to override a save interface; displaying, by the agent, a modified save interface for saving a data item, the modified save interface including one or more buttons related to classification and applying the classification to the data item.