mhurhangee/ep-ind-claims huggingface dataset:
A method of forming isolation regions having different depths in a semiconductor substrate, the method comprising: forming an etch mask material over a semiconductor substrate; using a single reticle in a photolithographic process to pattern the etch mask material to define first and second openings (107, 109) for forming first and second trench isolation areas, the second openings being wider than the first openings; etching first and second trench isolation areas in the semiconductor substrate using the patterned etch mask material; forming an isolation material within each of the first and second trench isolation areas; removing isolation material at the bottom of the second trench isolation areas to expose the semiconductor substrate, while leaving trench isolation material in the first trench isolation areas; further etching the exposed semiconductor substrate at the second trench isolation areas, such that the depth of the second trench isolation areas exceeds that of the first trench isolation areas; forming a trench isolation material within the deeper second trench isolation areas; forming an electronic device on the substrate which is electrically isolated by first trench isolation areas; and, forming a photonic device over the trench isolation material within the second trench isolation areas such that the photonic device is optically isolated from the substrate. forming an etch mask material over a semiconductor substrate; using a single reticle in a photolithographic process to pattern the etch mask material to define first and second openings (107, 109) for forming first and second trench isolation areas, the second openings being wider than the first openings; etching first and second trench isolation areas in the semiconductor substrate using the patterned etch mask material; forming an isolation material within each of the first and second trench isolation areas; removing isolation material at the bottom of the second trench isolation areas to expose the semiconductor substrate, while leaving trench isolation material in the first trench isolation areas; further etching the exposed semiconductor substrate at the second trench isolation areas, such that the depth of the second trench isolation areas exceeds that of the first trench isolation areas; forming a trench isolation material within the deeper second trench isolation areas; forming an electronic device on the substrate which is electrically isolated by first trench isolation areas; and, forming a photonic device over the trench isolation material within the second trench isolation areas such that the photonic device is optically isolated from the substrate.
A method of requesting service delivery of data in a communication network, the method comprising, at a mobile device: sending to an interaction device information relating to a service and requesting information relating to a Radio Access Network to which the mobile device is attached; receiving from a remote device the requested information, wherein the remote device is located at a device in the Radio Access Network; using the received information, establishing a required service delivery parameter relating to delivery of the service from a server to the mobile device; sending towards the server a request for data, the request including the established service delivery parameter; and receiving from the server data sent using the service delivery parameter, wherein the information relating to the Radio Access Network comprises injected data into user plane signalling. sending to an interaction device information relating to a service and requesting information relating to a Radio Access Network to which the mobile device is attached; receiving from a remote device the requested information, wherein the remote device is located at a device in the Radio Access Network; using the received information, establishing a required service delivery parameter relating to delivery of the service from a server to the mobile device; sending towards the server a request for data, the request including the established service delivery parameter; and receiving from the server data sent using the service delivery parameter,
An exercise machine with an apparatus for selecting an amount of weight to be lifted by a user, comprising: a frame; a selection arm having a proximal end pivotally connected to the frame; a support arm (24, 68, 68a) having a proximal end pivotally connected to the frame; a weight connected onto the support arm (24, 68, 68a); a pin arm having a proximal end connected to the support arm (24, 68, 68a) and a distal end connected to the selection arm; a locking mechanism that holds the distal end of the pin arm adjacent to the selection arm while: being unlocked to permit the distal end of the pin arm to be moved to a plurality of positions along the length of the selection arm, or being locked to hold the distal end of the pin arm at one of the plurality of positions along the length of the selection arm; and a cable connected to the selection arm, wherein tension applied to the cable lifts a free end of the selection arm, thereby lifting the pin arm and lifting the weight; the load from the weight is pivoted upon the support arm (24, 68, 68a) and the resistance depending on the position at which the distal end of the pin arm is engaged with the selection arm defined by an arched member; characterised in that: only rotary joints are employed to translate the weight providing resistance to the tension applied to the cable. a frame; a selection arm having a proximal end pivotally connected to the frame; a support arm (24, 68, 68a) having a proximal end pivotally connected to the frame; a weight connected onto the support arm (24, 68, 68a); a pin arm having a proximal end connected to the support arm (24, 68, 68a) and a distal end connected to the selection arm; a locking mechanism that holds the distal end of the pin arm adjacent to the selection arm while: being unlocked to permit the distal end of the pin arm to be moved to a plurality of positions along the length of the selection arm, or being locked to hold the distal end of the pin arm at one of the plurality of positions along the length of the selection arm; and being unlocked to permit the distal end of the pin arm to be moved to a plurality of positions along the length of the selection arm, or being locked to hold the distal end of the pin arm at one of the plurality of positions along the length of the selection arm; and a cable connected to the selection arm, wherein tension applied to the cable lifts a free end of the selection arm, thereby lifting the pin arm and lifting the weight; the load from the weight is pivoted upon the support arm (24, 68, 68a) and the resistance depending on the position at which the distal end of the pin arm is engaged with the selection arm defined by an arched member; characterised in that: only rotary joints are employed to translate the weight providing resistance to the tension applied to the cable.
A drive unit for a worm conveyor supplying a combustion chamber of a pellet burner, comprising an electric motor, a reduction gear, a radial fan, a housing and a mounting plate which has a shape adapted to the shape of the housing, wherein the radial fan and the electric motor are connected with the reduction gear via a centring sleeve, characterised in that said radial fan comprises an outer rotor with blades arranged on its outer circumference and a stator located inside the rotor, and wherein the centring sleeve has a flange removably mounted to the mounting plate from one side, and tightly fitted with a seat of the reduction gear from the other side.
A process to implement and maintain artificial lakes and artificial lagoons for recreational use of water bodies larger than 15,000 m 3 with color, transparency and cleanness properties similar to swimming pools or tropical seas, at low cost, said process comprising: a.- providing a structure with surface slot skimmers able to contain a water body larger than 15,000 m 3; b.- feeding the structure of step (a) with inlet water having iron and manganese levels lower than 1.5 ppm and turbidity lower than 5 NTU; c.- measuring water pH; d.- adding an oxidizing agent to the water contained in the structure of step (a), with which a 600 mV minimal ORP is controlled in water for a minimal period of 4 hours and in maximal cycles of 48 hours, wherein the oxidizing agent is selected among ozone, sodium or potassium persulfate, chlorine derivatives, hydrogen peroxide, bromine derivatives or chlorine produced by electrochlorination; e.- adding a flocculating agent in concentrations within 0.02 and 1 ppm with maximal frequencies of 6 days and cleaning the bottom of the structure of step (a) with a suction device to remove precipitated impurities from the bottom of said structure, together with the additional flocculants, and; f.- generating a displacement of surface water containing impurities and surface oils by the injection of inlet water according to step (b), which generates said displacement to remove said surface water by a system for impurities and surface oils removal arranged in the structure of step (a), which together with step (e) replaces traditional filtering. a.- providing a structure with surface slot skimmers able to contain a water body larger than 15,000 m 3; b.- feeding the structure of step (a) with inlet water having iron and manganese levels lower than 1.5 ppm and turbidity lower than 5 NTU; c.- measuring water pH; d.- adding an oxidizing agent to the water contained in the structure of step (a), with which a 600 mV minimal ORP is controlled in water for a minimal period of 4 hours and in maximal cycles of 48 hours, wherein the oxidizing agent is selected among ozone, sodium or potassium persulfate, chlorine derivatives, hydrogen peroxide, bromine derivatives or chlorine produced by electrochlorination; e.- adding a flocculating agent in concentrations within 0.02 and 1 ppm with maximal frequencies of 6 days and cleaning the bottom of the structure of step (a) with a suction device to remove precipitated impurities from the bottom of said structure, together with the additional flocculants, and; f.- generating a displacement of surface water containing impurities and surface oils by the injection of inlet water according to step (b), which generates said displacement to remove said surface water by a system for impurities and surface oils removal arranged in the structure of step (a), which together with step (e) replaces traditional filtering.
Image processing system (100, 200) for enabling a user to navigate through image data having three spatial dimensions by displaying views of the image data, the image processing system comprising: - an image device comprising a display configured to display the views of the image data and an orientation sensor configured to measure an orientation of the image device with respect to a reference orientation for providing rotation data indicative of a device rotation of the image device; - means (140, 240) configured to establish a center of rotation in the image data; and - an image processor (150, 250) configured to establish the views of the image data in relation to the device rotation by, for establishing a current view, being configured to: (i) receive the rotation data from the orientation sensor, (ii) establish a three dimensional view rotation in relation to the device rotation, and (iii) establish the current view in dependence on the three dimensional view rotation around the center of rotation with respect to a reference view, wherein the means (140, 240) for establishing the center of rotation comprises a region of interest detector configured to automatically detecting a region of interest in the image data, and is arranged for establishing the center of rotation in dependence on the detected region of interest. - an image device comprising a display configured to display the views of the image data and an orientation sensor configured to measure an orientation of the image device with respect to a reference orientation for providing rotation data indicative of a device rotation of the image device; - means (140, 240) configured to establish a center of rotation in the image data; and - an image processor (150, 250) configured to establish the views of the image data in relation to the device rotation by, for establishing a current view, being configured to: (i) receive the rotation data from the orientation sensor, (ii) establish a three dimensional view rotation in relation to the device rotation, and (iii) establish the current view in dependence on the three dimensional view rotation around the center of rotation with respect to a reference view,
Vision enhancement apparatus for a vision-impaired user of interface equipment, comprising: a passive sensor to acquire real-time high resolution data representing the vicinity of the user; a sight processor adapted to receive the acquired high resolution data, characterised in that said processor is further adapted to automatically: analyse the high resolution data to extract depth of field information concerning objects of interest' extract lower resolution data representing the vicinity of the user, and, provide both the depth of field information concerning objects of interest and the lower resolution data representing the vicinity of the user to the interface equipment to stimulate artificial vision for the user. a passive sensor to acquire real-time high resolution data representing the vicinity of the user; a sight processor adapted to receive the acquired high resolution data, characterised in that said processor is further adapted to automatically: analyse the high resolution data to extract depth of field information concerning objects of interest' extract lower resolution data representing the vicinity of the user, and, provide both the depth of field information concerning objects of interest and the lower resolution data representing the vicinity of the user to the interface equipment to stimulate artificial vision for the user. analyse the high resolution data to extract depth of field information concerning objects of interest' extract lower resolution data representing the vicinity of the user, and, provide both the depth of field information concerning objects of interest and the lower resolution data representing the vicinity of the user to the interface equipment to stimulate artificial vision for the user.
A measurement arrangement comprising: - two antenna arrangements for radiating microwaves, each comprising: - a dielectric waveguide body; and - a carrier body; wherein the dielectric waveguide body an electrically conductive surface at least along a circumferential sheath surface, wherein the dielectric waveguide body has an electrically non-conductive radiating surface, wherein the dielectric waveguide body has a coupler receptacle; wherein the carrier body surrounds the dielectric waveguide body at least along the lateral surface, wherein the dielectric waveguide body is fixed in the carrier body, wherein the carrier body has a radiating aperture, the radiating surface being aligned with the radiating aperture; - a measuring tube with two opposite antenna openings on each of which one of the antenna arrangements is mounted, - a measuring and operating circuit which is connected to each antenna arrangement by means of a signal line, characterized in that the carrier body comprises a material having a modulus of elasticity of not less than 50 GPa. - two antenna arrangements for radiating microwaves, each comprising: - a dielectric waveguide body; and - a carrier body; wherein the dielectric waveguide body an electrically conductive surface at least along a circumferential sheath surface, wherein the dielectric waveguide body has an electrically non-conductive radiating surface, wherein the dielectric waveguide body has a coupler receptacle; wherein the carrier body surrounds the dielectric waveguide body at least along the lateral surface, wherein the dielectric waveguide body is fixed in the carrier body, wherein the carrier body has a radiating aperture, the radiating surface being aligned with the radiating aperture; - a dielectric waveguide body; and - a carrier body; wherein the dielectric waveguide body an electrically conductive surface at least along a circumferential sheath surface, wherein the dielectric waveguide body has an electrically non-conductive radiating surface, wherein the dielectric waveguide body has a coupler receptacle; wherein the carrier body surrounds the dielectric waveguide body at least along the lateral surface, wherein the dielectric waveguide body is fixed in the carrier body, wherein the carrier body has a radiating aperture, the radiating surface being aligned with the radiating aperture; wherein the dielectric waveguide body an electrically conductive surface at least along a circumferential sheath surface, wherein the dielectric waveguide body has an electrically non-conductive radiating surface, wherein the dielectric waveguide body has a coupler receptacle; wherein the carrier body surrounds the dielectric waveguide body at least along the lateral surface, wherein the dielectric waveguide body is fixed in the carrier body, wherein the carrier body has a radiating aperture, the radiating surface being aligned with the radiating aperture; - a measuring tube with two opposite antenna openings on each of which one of the antenna arrangements is mounted, - a measuring and operating circuit which is connected to each antenna arrangement by means of a signal line,
A system comprising: an activity sensor configured to generate a signal that varies as a function of activity of a patient; and memory configured to store patient activity data indicative of the patient activity based on the signal; and a processor characterized in that the processor is configured to receive an indication that an involuntary voiding event has occurred and, in response to receiving such an indication, to retrieve from said memory patient activity data coinciding with the occurrence; the processor is configured to make a distinction as to whether the involuntary voiding event was attributable to stress incontinence or whether the involuntary voiding event was attributable to urge incontinence, the distinction being based on the retrieved activity data. an activity sensor configured to generate a signal that varies as a function of activity of a patient; and memory configured to store patient activity data indicative of the patient activity based on the signal; and a processor characterized in that the processor is configured to receive an indication that an involuntary voiding event has occurred and, in response to receiving such an indication, to retrieve from said memory patient activity data coinciding with the occurrence; the processor is configured to make a distinction as to whether the involuntary voiding event was attributable to stress incontinence or whether the involuntary voiding event was attributable to urge incontinence, the distinction being based on the retrieved activity data.
A packet processing method, wherein the method comprises: receiving (S207, S401), by a control device, a first packet sent by a server, wherein the first packet comprises an identifier of a network slice and the identifier of the network slice is used to identify the network slice; determining (S208, S402), by the control device, parameter information of the network slice based on the identifier of the network slice; determining (S209, S403), by the control device based on the parameter information, a forwarding path from a first edge node of a first network to a second edge node of the first network; and adding (S 211, S404), by the control device, a forwarding resource comprised in the forwarding path to a forwarding resource of the network slice, wherein the forwarding path is used to forward a packet carrying the identifier of the network slice; wherein the first packet further comprises location information of a terminal device and after the receiving the first packet, the method further comprises: allocating, by the control device, an Internet Protocol, IP, address to the terminal device based on the location information, the IP address is to be used as a source IP address of a third packet sent by the terminal device. receiving (S207, S401), by a control device, a first packet sent by a server, wherein the first packet comprises an identifier of a network slice and the identifier of the network slice is used to identify the network slice; determining (S208, S402), by the control device, parameter information of the network slice based on the identifier of the network slice; determining (S209, S403), by the control device based on the parameter information, a forwarding path from a first edge node of a first network to a second edge node of the first network; and adding (S 211, S404), by the control device, a forwarding resource comprised in the forwarding path to a forwarding resource of the network slice, wherein the forwarding path is used to forward a packet carrying the identifier of the network slice; wherein the first packet further comprises location information of a terminal device and after the receiving the first packet, the method further comprises: allocating, by the control device, an Internet Protocol, IP, address to the terminal device based on the location information, the IP address is to be used as a source IP address of a third packet sent by the terminal device.
A computer for providing a Quality of Service, QoS, based information service comprising: a path segmentation component configured to accept a first submittal from a first entity which contains an indication of a first performance level of a first communication path, characterized in that the path segmentation component being further configured to determine a first partial path segment which is a portion of the first communication path and to determine a first partial performance level corresponding to the first partial path segment; a path assembly component in communication with the path segmentation component and being configured to determine a second performance level of a second partial path segment based at least partially on the first determined performance level of the first partial path segment and to output an indication of the determined second performance level of the second partial path segment, the second partial path segment being partially disjoint from and partially overlapping with the first communication path; and a query component adapted to determine the result of the path assembly component to output an indication of an optimal path. a path segmentation component configured to accept a first submittal from a first entity which contains an indication of a first performance level of a first communication path, characterized in that the path segmentation component being further configured to determine a first partial path segment which is a portion of the first communication path and to determine a first partial performance level corresponding to the first partial path segment; a path assembly component in communication with the path segmentation component and being configured to determine a second performance level of a second partial path segment based at least partially on the first determined performance level of the first partial path segment and to output an indication of the determined second performance level of the second partial path segment, the second partial path segment being partially disjoint from and partially overlapping with the first communication path; and a query component adapted to determine the result of the path assembly component to output an indication of an optimal path.