mhurhangee/ep-ind-claims huggingface dataset:
A light-emitting device (10; 40; 50; 60) comprising: an at least partially doped substrate of a first conductivity type, comprising a surface; light-emitting diodes, each comprising at least one non-doped or doped three-dimensional semiconductor element of the first conductivity type, resting on said surface, in contact with said surface or separated from said surface by a seed pad; and semiconductor regions forming photodiodes, at least partially doped of a second conductivity type opposite to the first conductivity type and extending in the substrate from said surface between at least some of the three-dimensional semiconductor elements such that, for each three-dimensional semiconductor element, a portion of the substrate of the first conductivity type extends all the way to said surface in contact with the three-dimensional semiconductor element or with the seed pad on which the three-dimensional element rests; characterized in that the device comprises: an at least partially reflective layer covering the semiconductor regions between the three-dimensional semiconductor elements to avoid the semiconductor regions to receive a light radiation through the surface; an insulating layer interposed between the semiconductor regions and said at least partially reflective layer; and electrically-insulating regions extending along the lateral edges of at least some semiconductor regions. an at least partially doped substrate of a first conductivity type, comprising a surface; light-emitting diodes, each comprising at least one non-doped or doped three-dimensional semiconductor element of the first conductivity type, resting on said surface, in contact with said surface or separated from said surface by a seed pad; and semiconductor regions forming photodiodes, at least partially doped of a second conductivity type opposite to the first conductivity type and extending in the substrate from said surface between at least some of the three-dimensional semiconductor elements such that, for each three-dimensional semiconductor element, a portion of the substrate of the first conductivity type extends all the way to said surface in contact with the three-dimensional semiconductor element or with the seed pad on which the three-dimensional element rests; characterized in that the device comprises: an at least partially reflective layer covering the semiconductor regions between the three-dimensional semiconductor elements to avoid the semiconductor regions to receive a light radiation through the surface; an insulating layer interposed between the semiconductor regions and said at least partially reflective layer; and electrically-insulating regions extending along the lateral edges of at least some semiconductor regions. an at least partially reflective layer covering the semiconductor regions between the three-dimensional semiconductor elements to avoid the semiconductor regions to receive a light radiation through the surface; an insulating layer interposed between the semiconductor regions and said at least partially reflective layer; and electrically-insulating regions extending along the lateral edges of at least some semiconductor regions.
An assembly of: - a sound generator having a sound output, - a spout connected to the sound generator, the spout having a sound channel configured to guide sound away from the sound generator, the sound channel having having a first opening, connected to the sound output, and a second opening, - a sensor positioned in the sound channel, and - a dome attached to the spout, characterised in that: - the spout has one or more third openings between the first opening and the second opening, - the sensor is positioned in the sound channel at the third opening(s) so that sound may pass the sensor via the third opening(s), and - the dome has a fastening portion engaging the spout and blocking the third opening(s). - a sound generator having a sound output, - a spout connected to the sound generator, the spout having a sound channel configured to guide sound away from the sound generator, the sound channel having having a first opening, connected to the sound output, and a second opening, - a sensor positioned in the sound channel, and - a dome attached to the spout, - the spout has one or more third openings between the first opening and the second opening, - the sensor is positioned in the sound channel at the third opening(s) so that sound may pass the sensor via the third opening(s), and - the dome has a fastening portion engaging the spout and blocking the third opening(s).
A fixing for securing a spare wheel to a structure, for example a part of a vehicle, the fixing comprising: a shaft comprising a shoulder; and a connector disposed at one end of the shaft, the connector having a lug (112a, 112b) arranged such that rotation of the fixing relative to the structure moves the lug (112a, 112b) into a recess (308a, 308b) of the structure to secure the fixing to the structure; and wherein the connector further comprises a resilient articulated arm (114a, 114b) arranged to act between the fixing and the structure to urge the lug (112a, 112b) into the recess (308a, 308b) when the fixing is connected to the structure; wherein the resilient articulated arm (114a, 114b) extends from the shoulder in an axial direction of the shaft; and wherein the resilient articulated arm (114a, 114b) is an integrally moulded part of the fixing. a shaft comprising a shoulder; and a connector disposed at one end of the shaft, the connector having a lug (112a, 112b) arranged such that rotation of the fixing relative to the structure moves the lug (112a, 112b) into a recess (308a, 308b) of the structure to secure the fixing to the structure; and wherein the connector further comprises a resilient articulated arm (114a, 114b) arranged to act between the fixing and the structure to urge the lug (112a, 112b) into the recess (308a, 308b) when the fixing is connected to the structure; wherein the resilient articulated arm (114a, 114b) extends from the shoulder in an axial direction of the shaft; and wherein the resilient articulated arm (114a, 114b) is an integrally moulded part of the fixing.
Burglar-resistant wall, with at least one first wall section, said first wall section having two parallel and spaced-apart plate elements (18, 19); a) a second wall section is provided, which is arranged at a distance and parallel to the first wall section, the second wall section having two parallel and spaced-apart plate elements (16, 17), b) a support structure arranged between the wall sections (3, 4) is provided, c) the plate elements (18, 19; 16, 17) of the first and second wall sections (3, 4) are connected to the support structure; characterized in that between the plate elements (18, 19) of the first wall section there is a first reinforcement fabric, and between plate elements (16, 17) of the second wall section there is a second reinforcement fabric; the first and the second reinforcement fabric (20, 21) being made of plastic, the plastic being polymethyl methacrylate or polycarbonate. a) a second wall section is provided, which is arranged at a distance and parallel to the first wall section, the second wall section having two parallel and spaced-apart plate elements (16, 17), b) a support structure arranged between the wall sections (3, 4) is provided, c) the plate elements (18, 19; 16, 17) of the first and second wall sections (3, 4) are connected to the support structure; characterized in that between the plate elements (18, 19) of the first wall section there is a first reinforcement fabric, and between plate elements (16, 17) of the second wall section there is a second reinforcement fabric; the first and the second reinforcement fabric (20, 21) being made of plastic, the plastic being polymethyl methacrylate or polycarbonate.
A network device comprising: at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the device to: in response to downlink data to be transmitted to a terminal device, determine, at the network device, a control resource set associated with the terminal device in a control resource region; select, from the control resource set, localized control resources for control information associated with the downlink data; select data resources for the downlink data in both the control resource region and a data resource region; transmit the control information to the terminal device by using the localized control resources; and transmit the downlink data to the terminal device by using the data resources. at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the device to: in response to downlink data to be transmitted to a terminal device, determine, at the network device, a control resource set associated with the terminal device in a control resource region; select, from the control resource set, localized control resources for control information associated with the downlink data; select data resources for the downlink data in both the control resource region and a data resource region; transmit the control information to the terminal device by using the localized control resources; and transmit the downlink data to the terminal device by using the data resources. in response to downlink data to be transmitted to a terminal device, determine, at the network device, a control resource set associated with the terminal device in a control resource region; select, from the control resource set, localized control resources for control information associated with the downlink data; select data resources for the downlink data in both the control resource region and a data resource region; transmit the control information to the terminal device by using the localized control resources; and transmit the downlink data to the terminal device by using the data resources.
A ferritic steel interconnect in a solid oxide fuel cell comprising: a stainless steel component; an oxide component; and a seal between the stainless steel component and the oxide component consisting of a sealant comprising a glass material comprising: 40-60 mol% B 2 O 3 as a principal glass former, 10-25 mol% BaO, 10-25 mol% SiO 2, 2-10 mol% Al 2 O 3, and wherein the glass material contains no more than 15 vol.% crystallized material at SOFC operational temperatures of 650° to 850°C; optionally one or more alkaline earth oxides selected from CaO, SrO, and MgO, optionally a transition metal oxide selected from among ZnO, La 2 O 3, and ZrO 2; wherein the glass material is substantially alkali-free; wherein the sealant glass material has a softening temperature below 650°C. a stainless steel component; an oxide component; and a seal between the stainless steel component and the oxide component consisting of a sealant comprising a glass material comprising: 40-60 mol% B 2 O 3 as a principal glass former, 10-25 mol% BaO, 10-25 mol% SiO 2, 2-10 mol% Al 2 O 3, and wherein the glass material contains no more than 15 vol.% crystallized material at SOFC operational temperatures of 650° to 850°C; 40-60 mol% B 2 O 3 as a principal glass former, 10-25 mol% BaO, 10-25 mol% SiO 2, 2-10 mol% Al 2 O 3, and wherein the glass material contains no more than 15 vol.% crystallized material at SOFC operational temperatures of 650° to 850°C; optionally one or more alkaline earth oxides selected from CaO, SrO, and MgO, optionally a transition metal oxide selected from among ZnO, La 2 O 3, and ZrO 2; wherein the glass material is substantially alkali-free; wherein the sealant glass material has a softening temperature below 650°C.
Press hardening tool with a forming surface, which serves to form a blank, characterised in that the forming surface of the tool is microstructured at least in some areas by micro-indentations introduced into the forming surface, and in these areas the contact surface between the forming surface of the tool and the surface of a blank is restricted to portions of the surface which are located between the indentations of the forming surface and which project in relation to the indentations.
A data transmission method, comprising: independently encoding, by a terminal device, data to be transmitted on each transmission resource in multiple transmission resources; transmitting, by the terminal device, the independently encoded data on each transmission resource of the multiple transmission resources without grant, wherein each transmission resource of the multiple transmission resources comprises at least one resource unit, and the at least one resource unit comprised in the each transmission resource satisfy a pre-agreed condition, characterized in that the pre-agreed condition comprises: an index P of a starting resource unit in the at least one resource unit comprised in the each transmission resource satisfies P mod N=k, where N is a quantity of the resource units in the each transmission resource, k is a non-negative integer smaller than N; wherein the starting resource unit in the at least one resource unit comprised in the each transmission resource comprises a resource unit with an even index in the at least one resource unit. independently encoding, by a terminal device, data to be transmitted on each transmission resource in multiple transmission resources; transmitting, by the terminal device, the independently encoded data on each transmission resource of the multiple transmission resources without grant, wherein each transmission resource of the multiple transmission resources comprises at least one resource unit, and the at least one resource unit comprised in the each transmission resource satisfy a pre-agreed condition, characterized in that the pre-agreed condition comprises: an index P of a starting resource unit in the at least one resource unit comprised in the each transmission resource satisfies P mod N=k, where N is a quantity of the resource units in the each transmission resource, k is a non-negative integer smaller than N; wherein the starting resource unit in the at least one resource unit comprised in the each transmission resource comprises a resource unit with an even index in the at least one resource unit. an index P of a starting resource unit in the at least one resource unit comprised in the each transmission resource satisfies P mod N=k, where N is a quantity of the resource units in the each transmission resource, k is a non-negative integer smaller than N; wherein the starting resource unit in the at least one resource unit comprised in the each transmission resource comprises a resource unit with an even index in the at least one resource unit.
An apparatus comprising: a valve body of a fluid regulator, the valve body having an inlet and an outlet; a cage of the fluid regulator disposed in the valve body, the cage having a central aperture; a valve stem to be received by the central aperture; and a diaphragm coupled to the valve stem; wherein the valve body includes a removable portion at a first end of the valve body where the stem enters the valve body, the removable portion of the valve body at least partially defining an outer surface of the valve body, and wherein an integral protrusion of the cage is to constrain a peripheral edge of the diaphragm against the removable portion of the valve body when the cage is coupled to the valve body, characterized in the cage further comprising an integral threaded portion to receive a valve stem guide to align the valve stem, the apparatus further comprising a second integral protrusion to be received by a recess of the removable portion of the valve body to constrain the cage relative to the valve body, and wherein the cage further comprises an aperture to allow fluid communication between the inlet and the diaphragm. a valve body of a fluid regulator, the valve body having an inlet and an outlet; a cage of the fluid regulator disposed in the valve body, the cage having a central aperture; a valve stem to be received by the central aperture; and a diaphragm coupled to the valve stem; wherein the valve body includes a removable portion at a first end of the valve body where the stem enters the valve body, the removable portion of the valve body at least partially defining an outer surface of the valve body, and wherein an integral protrusion of the cage is to constrain a peripheral edge of the diaphragm against the removable portion of the valve body when the cage is coupled to the valve body, characterized in the cage further comprising an integral threaded portion to receive a valve stem guide to align the valve stem, the apparatus further comprising a second integral protrusion to be received by a recess of the removable portion of the valve body to constrain the cage relative to the valve body, and wherein the cage further comprises an aperture to allow fluid communication between the inlet and the diaphragm.
Anchoring base for an orthopedic joint implant, comprising a flat bearing surface in the form of a crown suitable to cooperate with a bone cut made at the metaphyseal end of the relevant bone, said crown coaxially having a stud secured to anchoring fins capable of being impinged in the bone section, the anchoring fins being formed radially from the periphery of the crown, characterized in that the anchoring fins are perforated by the addition of a very thin mesh wall, with a thickness in the range from 0.1 to 0.3 mm corresponding substantially to the bone cells in order to promote bone regrowth, the base, including the mesh walls, being produced by additive manufacturing.
Method for processing images in a system for capturing a series of images of a scene comprising an image capture device having a matrix of flux sensors oriented along a line of sight (z), said image capture device being controlled by an inertial stabilization module which stabilizes the line of sight of the image capture device in an inertial reference frame, and said series of images being captured by said image capture device whose line of sight is then driven by a motion control module in a defined cyclical motion and exhibiting, over a cycle, at the level of the matrix of the flux sensors, an amplitude of n pixels, n being an integer number greater than 2 and less than n max, n max being determined such that the images captured during a cycle exhibit a mostly common part, said image processing method consisting in: - determining the defined motion by the application of a digital processing of the preceding and next images, said preceding and next images being two images captured consecutively out of said series of images; and - correcting a spatial noise relating to said flux sensors and affecting the common part of said preceding and next images, on the basis of said defined motion determined by the application of said digital processing, as a function of at least one determined shift between a value of a reference pixel (P 1) in the common part of the preceding image and a value of a next pixel (P 2) which represents one and the same point of said scene as said reference pixel in said common part of the next image. - determining the defined motion by the application of a digital processing of the preceding and next images, said preceding and next images being two images captured consecutively out of said series of images; and - correcting a spatial noise relating to said flux sensors and affecting the common part of said preceding and next images, on the basis of said defined motion determined by the application of said digital processing, as a function of at least one determined shift between a value of a reference pixel (P 1) in the common part of the preceding image and a value of a next pixel (P 2) which represents one and the same point of said scene as said reference pixel in said common part of the next image.
A liquid material discharging apparatus comprising: a liquid chamber which communicates with a discharging port and to which a liquid material is supplied; a plunger (30, 31, 33) whose front end portion moves forward and rearward inside the liquid chamber, the plunger having a piston located rearward of the front end portion; an elastic body which applies a biasing force to the plunger (30, 31, 33); and a pressurizing chamber to which compressed gas is supplied; wherein the piston is arranged in the pressurizing chamber, the liquid material is discharged through the discharging port by causing the plunger (30, 31, 33) to move forward fast, and wherein the compressed gas supplied to the pressurizing chamber applies a driving force to the piston to cause the plunger (30, 31, 33) to move forward, and the air pressure of the pressurizing chamber can be adjusted, characterized in that the elastic body applies the biasing force to cause the piston to move rearward and the front end portion integrally moves with the piston. a liquid chamber which communicates with a discharging port and to which a liquid material is supplied; a plunger (30, 31, 33) whose front end portion moves forward and rearward inside the liquid chamber, the plunger having a piston located rearward of the front end portion; an elastic body which applies a biasing force to the plunger (30, 31, 33); and a pressurizing chamber to which compressed gas is supplied; wherein the piston is arranged in the pressurizing chamber, the liquid material is discharged through the discharging port by causing the plunger (30, 31, 33) to move forward fast, and wherein the compressed gas supplied to the pressurizing chamber applies a driving force to the piston to cause the plunger (30, 31, 33) to move forward, and the air pressure of the pressurizing chamber can be adjusted, characterized in that the elastic body applies the biasing force to cause the piston to move rearward and the front end portion integrally moves with the piston.