mhurhangee/ep-ind-claims huggingface dataset:
A pump comprising: an impeller; a pump main shaft to which the impeller is attached; and a pump main shaft hub that is detachably attached to an end of the pump main shaft, wherein the pump main shaft hub is a tubular member, into which a motor main shaft is able to be inserted, the pump being characterised in that, the pump main shaft hub is configured to be coupled to the motor main shaft via transition fitting; and wherein the pump main shaft hub has, in an outer peripheral surface, a locked portion configured to engage with a locking portion of a pulley removing device. an impeller; a pump main shaft to which the impeller is attached; and a pump main shaft hub that is detachably attached to an end of the pump main shaft, wherein the pump main shaft hub is a tubular member, into which a motor main shaft is able to be inserted, the pump being characterised in that, the pump main shaft hub is configured to be coupled to the motor main shaft via transition fitting; and wherein the pump main shaft hub has, in an outer peripheral surface, a locked portion configured to engage with a locking portion of a pulley removing device.
A clamp for a pipe or the like, to be attached in use to a profile, wherein the clamp comprises a mainly ring-shaped clamp body for receiving the pipe, and further a suspension part that in use at least partially encloses the profile to suspend the clamp body from the profile, wherein the clamp body and the suspension part are two separate parts that are connected with each other when in use, characterized in that the suspension part has legs (11, 12) that, when in use, extend along the sides of the profile, wherein the clamp body has an end part that is provided with attachment means (16, 17, 18) that will firmly attach one of the legs of the suspension part to the clamp body, and wherein the attachment means comprise one or more fixing lips that can be folded around the leg of the suspension part or are folded in order to fix said leg of the suspension part to said end part of the clamp body.
A vacuum cooling device (1, 101) for the cooling of foodstuff, in particular hot bakery products, comprises a vacuum chamber (2, 102), which contains a product chamber (7, 107) for receiving the foodstuff for its cooling and a container (10, 110), a vacuum source (3, 103), which is connected with the product chamber (7, 107) and a vapor condenser (4, 104) for condensation of vapor containing discharge air generated during the cooling process in the product chamber (7, 107), wherein the vapor condenser (4, 104) is arranged below the product chamber (7, 107), wherein the vapor condenser can contain a cooling medium, if the vacuum cooling device is in the operating state, wherein the vapor condenser (4, 104) comprises a cooling medium distribution device (56, 156) to distribute the cooling medium in the vapor condenser (4, 104), wherein the product chamber (7, 107) comprises at least an opening (31, 131) for supplying the vapor containing discharge air into the cooling medium characterized in that the cooling medium distribution device (56, 156) is configured as a spraying device.
A toy comprising a first plush portion and a second plush portion connected by a rigid plastic part, wherein the rigid plastic part has a first end and a second end, wherein said first end of said plastic part is externally threaded, characterised by the toy further comprising a first connecting ring and a second connecting ring, wherein said first connecting ring has an internally threaded portion and is permanently connected to said first plush portion by a first stitch line, said second connecting ring is permanently connected to said second plush portion by a second stitch line, said first end of said rigid plastic part adapted to engage said internally threaded portion of said first connecting ring and said second end of said rigid plastic part is permanently connected to said second connecting ring.
A battery pack, comprising: a plurality of unit cells; and a battery pack case, comprising: a bottom plate and a side plate connected to the bottom plate, wherein the bottom plate and the side plate surround to define an accommodating portion configured to accommodate the plurality of unit cells; and a plurality of first insulating strips provided on a surface of the bottom plate facing the accommodating portion, wherein the plurality of first insulating strips are sequentially spaced along a length direction or a width direction of the bottom plate, and a glue receiving groove in which an insulating glue is filled is formed between two adjacent first insulating strips, wherein the plurality of first insulating strips are configured to block the insulating glue from overflowing by a thickness of the plurality of first insulating strips, wherein the plurality of unit cells are fixed to the plurality of first insulating strips on the bottom plate by the insulating glue filled in the glue receiving groove; and wherein the plurality of first insulating strips are all plastic or insulating resin, and the bottom plate and the side plate are steel structures. a plurality of unit cells; and a battery pack case, comprising: a bottom plate and a side plate connected to the bottom plate, wherein the bottom plate and the side plate surround to define an accommodating portion configured to accommodate the plurality of unit cells; and a plurality of first insulating strips provided on a surface of the bottom plate facing the accommodating portion, wherein the plurality of first insulating strips are sequentially spaced along a length direction or a width direction of the bottom plate, and a glue receiving groove in which an insulating glue is filled is formed between two adjacent first insulating strips, a bottom plate and a side plate connected to the bottom plate, wherein the bottom plate and the side plate surround to define an accommodating portion configured to accommodate the plurality of unit cells; and a plurality of first insulating strips provided on a surface of the bottom plate facing the accommodating portion, wherein the plurality of first insulating strips are sequentially spaced along a length direction or a width direction of the bottom plate, and a glue receiving groove in which an insulating glue is filled is formed between two adjacent first insulating strips, wherein the plurality of first insulating strips are configured to block the insulating glue from overflowing by a thickness of the plurality of first insulating strips, wherein the plurality of unit cells are fixed to the plurality of first insulating strips on the bottom plate by the insulating glue filled in the glue receiving groove; and wherein the plurality of first insulating strips are all plastic or insulating resin, and the bottom plate and the side plate are steel structures.
A method of sealing a line into a hole (35;22A) in a fitting (34;18A), the method comprising the steps of: providing a resilient sleeve having a wall thickness and a longitudinal axis; inserting the line into the sleeve; and applying an external tension longitudinally of the sleeve so that the sleeve extends longitudinally and so that the wall thickness of the sleeve reduces; characterised by inserting the line and the externally tensioned sleeve into the hole in the fitting; and removing the external longitudinal tension so that: the sleeve contracts longitudinally; the wall thickness of the sleeve increases; internally the sleeve becomes radially in compression in the hole between the line and the fitting; and internally the sleeve remains longitudinally in tension. providing a resilient sleeve having a wall thickness and a longitudinal axis; inserting the line into the sleeve; and applying an external tension longitudinally of the sleeve so that the sleeve extends longitudinally and so that the wall thickness of the sleeve reduces; characterised by inserting the line and the externally tensioned sleeve into the hole in the fitting; and removing the external longitudinal tension so that: the sleeve contracts longitudinally; the wall thickness of the sleeve increases; internally the sleeve becomes radially in compression in the hole between the line and the fitting; and internally the sleeve remains longitudinally in tension. the sleeve contracts longitudinally; the wall thickness of the sleeve increases; internally the sleeve becomes radially in compression in the hole between the line and the fitting; and internally the sleeve remains longitudinally in tension.
A method of manufacturing a thin film transistor substrate, comprising: forming on a surface of a substrate a first conductive pattern group including a gate line, a gate electrode, and a gate pad electrode; forming a gate insulating layer on the surface of the substrate on which the first conductive pattern group is formed; forming on the gate insulating layer an oxide semiconductor pattern overlapping the gate electrode; and forming first and second conductive layers (105; 107) on the surface of the substrate on which the oxide semiconductor pattern is formed and patterning the first and second conductive layers (105; 107) to form a second conductive pattern group including a data line, a source electrode, a drain electrode; wherein the first and second conductive layers (105; 107) are structured as double layers; patterning the first and second conductive layers (105; 107) to form a second conductive pattern group includes a data pad; wherein the first conductive layer is formed of a transparent conductive material; and wherein the second conductive layer is formed of a material selected from the group consisting of Cu, Mo, Al, Ti, Al-Ni alloy, Cu alloy, Mo alloy, and Al alloy, characterized in that a column spacer is formed of an organic insulating layer on the source electrode and the drain electrode, and the column spacer overlaps the gate electrode, the oxide semiconductor pattern, the source electrode, and the drain electrode in a plan view. forming on a surface of a substrate a first conductive pattern group including a gate line, a gate electrode, and a gate pad electrode; forming a gate insulating layer on the surface of the substrate on which the first conductive pattern group is formed; forming on the gate insulating layer an oxide semiconductor pattern overlapping the gate electrode; and forming first and second conductive layers (105; 107) on the surface of the substrate on which the oxide semiconductor pattern is formed and patterning the first and second conductive layers (105; 107) to form a second conductive pattern group including a data line, a source electrode, a drain electrode; wherein the first and second conductive layers (105; 107) are structured as double layers; patterning the first and second conductive layers (105; 107) to form a second conductive pattern group includes a data pad; wherein the first conductive layer is formed of a transparent conductive material; and wherein the second conductive layer is formed of a material selected from the group consisting of Cu, Mo, Al, Ti, Al-Ni alloy, Cu alloy, Mo alloy, and Al alloy, characterized in that a column spacer is formed of an organic insulating layer on the source electrode and the drain electrode, and the column spacer overlaps the gate electrode, the oxide semiconductor pattern, the source electrode, and the drain electrode in a plan view.
An apparatus comprising: - processing circuitry to execute a sequence of instructions; - an integer storage element to store an integer value for access by the processing circuitry; - a capability storage element to store a capability for access by the processing circuitry; and - a capability usage storage to store capability usage information; characterized in that the processing circuitry is responsive to execution of at least one instruction in the sequence of instructions to generate, in dependence on the capability usage information, a result to be stored in a destination storage element, by: when the capability usage information identifies a capability state, generating the result as a capability and selecting the capability storage element as the destination storage element; and when the capability usage information identifies a non-capability state, generating the result as an integer value and selecting the integer storage element as the destination storage element; and wherein said at least one instruction comprises an instruction that specifies an immediate value as a source operand. - processing circuitry to execute a sequence of instructions; - an integer storage element to store an integer value for access by the processing circuitry; - a capability storage element to store a capability for access by the processing circuitry; and - a capability usage storage to store capability usage information; when the capability usage information identifies a capability state, generating the result as a capability and selecting the capability storage element as the destination storage element; and when the capability usage information identifies a non-capability state, generating the result as an integer value and selecting the integer storage element as the destination storage element; and wherein said at least one instruction comprises an instruction that specifies an immediate value as a source operand.
An image processing apparatus comprising: extraction means (221, 324) configured to extract a region of a foreground object in a captured image obtained by an imaging unit; superimposing means (221, 325) configured to superimpose a first image (601, 831), formed by anonymizing the region extracted by the extraction means, on a predetermined image, and to superimpose a second image (603, 833), formed by anonymizing a region designated by a user on the captured image obtained by the imaging unit, on the predetermined image; and display control means (221, 326) configured to cause a display unit to display an output image, wherein the display control means (221, 326) is configured to cause the display unit to display an output image, in which the first image and the second image are superimposed on the predetermined image by the superimposing means (221, 325), wherein an appearance of the second image is different from an appearance of the first image, the extraction means (221, 324) is configured to extract a region of a foreground object from at least a region other than the designated region in the captured image obtained by the imaging unit, and even if the designated region contains the foreground object, the superimposing means (221, 325) is configured to superimpose the second image on the predetermined image after the first image is superimposed on the predetermined image so that the first image formed by anonymizing the region of the foreground object in the designated region is not displayed on the output image displayed on the display unit by the display control means (221, 326). extraction means (221, 324) configured to extract a region of a foreground object in a captured image obtained by an imaging unit; superimposing means (221, 325) configured to superimpose a first image (601, 831), formed by anonymizing the region extracted by the extraction means, on a predetermined image, and to superimpose a second image (603, 833), formed by anonymizing a region designated by a user on the captured image obtained by the imaging unit, on the predetermined image; and display control means (221, 326) configured to cause a display unit to display an output image, wherein the display control means (221, 326) is configured to cause the display unit to display an output image, in which the first image and the second image are superimposed on the predetermined image by the superimposing means (221, 325), wherein an appearance of the second image is different from an appearance of the first image, the extraction means (221, 324) is configured to extract a region of a foreground object from at least a region other than the designated region in the captured image obtained by the imaging unit, and even if the designated region contains the foreground object, the superimposing means (221, 325) is configured to superimpose the second image on the predetermined image after the first image is superimposed on the predetermined image so that the first image formed by anonymizing the region of the foreground object in the designated region is not displayed on the output image displayed on the display unit by the display control means (221, 326).
A mirror assembly for a work vehicle, comprising: an elongated support beam having an end; a detent joint connected to the end of the elongated support beam and defining an axis of rotation; at least one support arm rotationally connected to the detent joint; at least one mirror (22, 24) connected to the at least one support arm; and an actuator for adjusting a position of the at least one mirror (22, 24) relative to the elongated support beam; wherein the detent joint comprises a detent bracket which is rotatable about the axis of rotation and the actuator is connected in between the elongated support beam and the detent bracket such that the at least one support arm is rotatable about the axis of rotation by the actuator. an elongated support beam having an end; a detent joint connected to the end of the elongated support beam and defining an axis of rotation; at least one support arm rotationally connected to the detent joint; at least one mirror (22, 24) connected to the at least one support arm; and an actuator for adjusting a position of the at least one mirror (22, 24) relative to the elongated support beam; wherein the detent joint comprises a detent bracket which is rotatable about the axis of rotation and the actuator is connected in between the elongated support beam and the detent bracket such that the at least one support arm is rotatable about the axis of rotation by the actuator.
A ground covering comprising on an underlying ground placed mat-like base composed of a plate-shaped main body and which is provided with apertures, and a granular bulk material, which is applied to the mat-like base, the granular bulk material forming a walk-on surface of the ground covering, and the mat-like base being provided with studs which are mounted onto webs bounding the apertures and which are oriented upwardly against the granular bulk material, wherein the studs each form the corner points of a substantially equilateral polygon, the polygons being joined to one another without gaps, characterised in that the bulk material consists of pieces of stone which have a particle size B which corresponds at least to half the length A of one side of the polygon, and in that the webs are parallel running longitudinal webs, for strengthening the mat-like base, wherein the mat-like base is rollable transversely with respect to the longitudinal webs.
A protective contact socket comprising a base having electrical plug-in contacts, a grounding hoop which is fastened to the base and which has a base and at least one grounding contact connected to the base, and a cover which is provided with a socket cup and which has at least one slot through which the grounding contact projects into the socket cup, wherein an outer end of the grounding contact is arranged outside the socket cup, the grounding contact has a transverse web at its outer end and the base or a component (28, 38) fixedly connected to the base forms at least one abutment for the transverse web, characterized in that the abutment blocks the transverse web in the direction of a plug-in direction of the socket.
A housing for an electronic device, comprising: a metal layer including a radio-frequency, RF, antenna; a first and a second gap formed through a thickness of the metal layer and arranged to form an electrically isolated segment of the metal layer configured to function as an RF antenna; a non-conductive material filling the first and the second gaps in the metal layer; and an metal oxide layer formed on an exterior surface of the metal layer and extending across the first and the second gaps and the electrically isolated segment, wherein the metal oxide layer forms an RF-transparent window to allow transmission of RF radiation from the electrically isolated segment through the window. a metal layer including a radio-frequency, RF, antenna; a first and a second gap formed through a thickness of the metal layer and arranged to form an electrically isolated segment of the metal layer configured to function as an RF antenna; a non-conductive material filling the first and the second gaps in the metal layer; and an metal oxide layer formed on an exterior surface of the metal layer and extending across the first and the second gaps and the electrically isolated segment, wherein the metal oxide layer forms an RF-transparent window to allow transmission of RF radiation from the electrically isolated segment through the window.
Method of manufacturing a backplane for the electrical connection of electrical components, the backplane comprising - a support plate, - electrical lines, which are each arranged on and/or in the support plate, and - at least one shield integrated into the support plate to shield against electrical and/or magnetic fields, characterized in that the at least one shield is integrated into the support plate in that, at least in a region surrounding the shield, the support plate is made with a 3D print, which embeds the shield in the support plate. - a support plate, - electrical lines, which are each arranged on and/or in the support plate, and - at least one shield integrated into the support plate to shield against electrical and/or magnetic fields,
A para-aortic blood pump device, comprising: a blood pump, comprising a pump housing, a blood sac, and a pressure sensor, the blood sac disposed in the pump housing, and the pressure sensor being installed in the pump housing for monitoring blood pressure inside the blood pump to generate an electrical blood pressure signal; an aortic adapter, being a T-manifold shaped conduit, coupled to the blood pump, and provided for integrating the blood pump with human aorta; a driveline, coupled to the pump housing of the blood pump, for transmitting the electrical blood pressure signal received from the pressure sensor; and a driver, coupled to the driveline for receiving the electrical blood pressure signal, and comprising an electro-mechanical actuator to generate a pressure pulse according to the electrical blood pressure signal, and providing the pressure pulse to the blood pump through the driveline. a blood pump, comprising a pump housing, a blood sac, and a pressure sensor, the blood sac disposed in the pump housing, and the pressure sensor being installed in the pump housing for monitoring blood pressure inside the blood pump to generate an electrical blood pressure signal; an aortic adapter, being a T-manifold shaped conduit, coupled to the blood pump, and provided for integrating the blood pump with human aorta; a driveline, coupled to the pump housing of the blood pump, for transmitting the electrical blood pressure signal received from the pressure sensor; and a driver, coupled to the driveline for receiving the electrical blood pressure signal, and comprising an electro-mechanical actuator to generate a pressure pulse according to the electrical blood pressure signal, and providing the pressure pulse to the blood pump through the driveline.
A telecommunications system comprising: a phase correlation measurement unit positioned at a sectorized antenna sub-system (2a, 2b, 2c) of a cell site that is located remotely from a radio frequency, RF, source of the cell site, wherein the phase correlation measurement unit is coupleable to the RF source of the cell site over at least two feed lines (3a, 3b, 3c), wherein the phase correlation measurement unit is configured to determine a rectified voltage signal of a combined signal formed from at least two downlink signals and to output signals for controlling a phase shifter (4a, 4b, 4c) at the RF source of the cell site for phase shifting downlink signals based on a measured voltage of the rectified voltage signal such that the sectorized antenna sub-system (2a, 2b, 2c) of the cell site operates as an omnidirectional antenna sub-system using at least two phase-aligned downlink signals.