mhurhangee/ep-ind-claims huggingface dataset:
A connecting member (10, 100) for use in building assembly comprising: a substantially rigid plate (12, 102) having one or more elongated slots formed therein, wherein at least one of the one or more elongated slots comprises a first edge and a second edge along a longest dimension of a respective one of the one or more slots; and a bushing coupled to the plate at an initial position within each of the one or more slots but movable relative to the plate (12, 102) within a respective one of the one or more slots upon application of a force exceeding a predetermined threshold value; wherein the bushing has a width that is substantially similar to a width between the first edge and the second edge of the respective one of the one or more slots such that the bushing is coupled to the plate (12, 102) by a friction fit; and wherein the predetermined threshold value comprises a force magnitude required to overcome frictional engagement of the bushing with the plate (12, 102). a substantially rigid plate (12, 102) having one or more elongated slots formed therein, wherein at least one of the one or more elongated slots comprises a first edge and a second edge along a longest dimension of a respective one of the one or more slots; and a bushing coupled to the plate at an initial position within each of the one or more slots but movable relative to the plate (12, 102) within a respective one of the one or more slots upon application of a force exceeding a predetermined threshold value; wherein the bushing has a width that is substantially similar to a width between the first edge and the second edge of the respective one of the one or more slots such that the bushing is coupled to the plate (12, 102) by a friction fit; and wherein the predetermined threshold value comprises a force magnitude required to overcome frictional engagement of the bushing with the plate (12, 102).
Method for calculating a shape factor indicative of the evenness of the pellucid zone thickness of a biological structure, comprising the following steps: - acquiring a digital image comprising said pellucid zone; - recognising an outer edge (a) and an inner edge (b) of said pellucid zone, said outer edge and said inner edge respectively being a distal edge and a proximal edge of said pellucid zone with respect to said structure; characterised in that it also comprises the following steps: - extracting first points of said outer edge, - interpolating said first points determining an outer polygonal A, - extracting second points of said inner edge, - interpolating said second points determining an inner polygonal B, - defining a plurality of reference points (Ri) geometrically related therebetween on the inner polygonal and/or on the outer polygonal; - calculating, at each of said reference points (R i), a corresponding distance between said polygonals, so obtaining a set of distances (z i); - building a broken line representing said set of distances as a function of said geometric relation; - calculating a length of said broken line, - calculating, at each vertex (v i) of said broken line, a local bending apt to approximate said broken line, within a neighbourhood of the vertex (v i), so obtaining a set of bendings (k(i)) - calculating said shape factor (ψ) of the pellucid zone as a function of the length of said broken line and of said set of bendings (k(i)). - acquiring a digital image comprising said pellucid zone; - recognising an outer edge (a) and an inner edge (b) of said pellucid zone, said outer edge and said inner edge respectively being a distal edge and a proximal edge of said pellucid zone with respect to said structure; - extracting first points of said outer edge, - interpolating said first points determining an outer polygonal A, - extracting second points of said inner edge, - interpolating said second points determining an inner polygonal B, - defining a plurality of reference points (Ri) geometrically related therebetween on the inner polygonal and/or on the outer polygonal; - calculating, at each of said reference points (R i), a corresponding distance between said polygonals, so obtaining a set of distances (z i); - building a broken line representing said set of distances as a function of said geometric relation; - calculating a length of said broken line, - calculating, at each vertex (v i) of said broken line, a local bending apt to approximate said broken line, within a neighbourhood of the vertex (v i), so obtaining a set of bendings (k(i)) - calculating said shape factor (ψ) of the pellucid zone as a function of the length of said broken line and of said set of bendings (k(i)).
A controlled porous osmotic pump tablet, which comprises a core and a semipermeable membrane, wherein the core comprises a principal agent which has good water solubility and is extremely permeable, a permeation enhancer and a permeation aid, and the semipermeable membrane comprises a film-forming material and a pore-forming agent, and optionally, is further coated with a conventional thin film; wherein the semipermeable membrane comprises the pore-forming agent in an amount of 20-45%, and is present in an amount of 10-35% by weight of the core, wherein the fill-forming material in the semipermeable membrane is selected from the group consisting of cellulose acetate, ethyl cellulose, hydroxypropylmethyl cellulose, polyacrylic resin, and mixtures thereof, and the pore-forming agent is selected from the group consisting of polyethylene glycol having a molecular weight of 2000-6000, hydroxypropyl cellulose, micronized sugar, sodium chloride, mannitol, sorbitol, and mixtures thereof, and which controlled porous osmotic pump tablet does not contain pores drilled by laser and provides controlled porosity for drug release by the pore-forming agent therein.
An information presentation system comprising: an onboard apparatus including a camera provided on a vehicle; and a terminal apparatus performing wireless communication with the onboard apparatus, the terminal apparatus comprising: an image acquisition unit configured to acquire a captured image around the vehicle captured by the camera; a delay state determination unit configured to determine a delay state including a delay time of the wireless communication between the onboard apparatus and the terminal apparatus; characterized by: a predicted image generation unit configured to: acquire state information of the vehicle from the onboard apparatus; calculate an existing position of the vehicle after the delay time, by using the state information of the vehicle; and generate a predicted image using the captured image that has been acquired so as to predict the predicted image to be captured by the camera at the calculated existing position of the vehicle after travelling when the delay time passes; and a presentation unit configured to present the predicted image. an onboard apparatus including a camera provided on a vehicle; and a terminal apparatus performing wireless communication with the onboard apparatus, an image acquisition unit configured to acquire a captured image around the vehicle captured by the camera; a delay state determination unit configured to determine a delay state including a delay time of the wireless communication between the onboard apparatus and the terminal apparatus; a predicted image generation unit configured to: acquire state information of the vehicle from the onboard apparatus; calculate an existing position of the vehicle after the delay time, by using the state information of the vehicle; and generate a predicted image using the captured image that has been acquired so as to predict the predicted image to be captured by the camera at the calculated existing position of the vehicle after travelling when the delay time passes; and acquire state information of the vehicle from the onboard apparatus; calculate an existing position of the vehicle after the delay time, by using the state information of the vehicle; and generate a predicted image using the captured image that has been acquired so as to predict the predicted image to be captured by the camera at the calculated existing position of the vehicle after travelling when the delay time passes; and a presentation unit configured to present the predicted image.
A programming system for generating an execution file (501, 504) from a program code (500, 503) for each processor (100, 200) of an arithmetic processing system provided with a plurality of processors (100, 200), the programming system comprising: a first compiler that generates one or more object codes from a program code for a first processor included in the arithmetic processing system; a first linker that links the one or more object codes generated by the first compiler to generate an execution file for the first processor, characterized by further comprising a parameter information generation unit that generates, based on the information acquired from the first linker, parameter information as a header file, the parameter information being required for use in a second processor included in the arithmetic processing system; a second compiler that generates one or more object codes from a program code and the header file for the second processor; and a second linker that links the one or more object codes generated by the second compiler to generate an execution file for the second processor. a first compiler that generates one or more object codes from a program code for a first processor included in the arithmetic processing system; a first linker that links the one or more object codes generated by the first compiler to generate an execution file for the first processor, characterized by further comprising a parameter information generation unit that generates, based on the information acquired from the first linker, parameter information as a header file, the parameter information being required for use in a second processor included in the arithmetic processing system; a second compiler that generates one or more object codes from a program code and the header file for the second processor; and a second linker that links the one or more object codes generated by the second compiler to generate an execution file for the second processor.
A toilet including a hygiene device comprising a porous bottom-wiping member arranged on a wiping control member, the wiping control member including a handle protruding from the toilet, and a water supply conduit (5, 8) connected to the porous member for supplying water thereto, characterised by a drying device comprising a drying element arranged on a drying control member, the drying control member also including a handle protruding from the toilet, and the wiping and drying control members (4, 10) being mounted to a wall of the toilet bowl.
A Narrow Band Internet of Things, NB-IoT, user apparatus for a mobile communication system including a base station and the NB-IoT user apparatus, comprising: a receiving unit configured to receive a UE capability request from the base station; and a transmission unit configured to transmit, to the base station, UE capability information of the user apparatus according to reception of the UE capability request, wherein the UE capability information includes a UE category for NB-IoT, but does not include a parameter of FGI and a parameter of a measurement gap. a receiving unit configured to receive a UE capability request from the base station; and a transmission unit configured to transmit, to the base station, UE capability information of the user apparatus according to reception of the UE capability request, wherein the UE capability information includes a UE category for NB-IoT, but does not include a parameter of FGI and a parameter of a measurement gap.
A xerographic image forming system for providing detection and adjustment of toner transfer performance, comprising: a light-transmissive transfer belt for receiving an amount of toner mass; a transmission sensor configured to sense light transmission through the light-transmissive transfer belt, the sensor comprising: a light source positioned over the light-transmissive transfer belt configured to apply light to a position on a surface of the light-transmissive transfer belt where the amount of toner mass is to be transferred, and a receiver positioned on a side of the light-transmissive transfer belt opposite from the light source configured to receive and measure an amount of light that passes through the light-transmissive transfer belt; and a measurement and control circuit connected to the transmission sensor and configured to compute a difference in at least one of intensity and frequency of transmitted light with and without an amount of toner mass on the surface of the light-transmissive transfer belt, wherein only the difference in transmitted light is used to calculate a transfer parameter that is configured to adjust toner transfer performance. a light-transmissive transfer belt for receiving an amount of toner mass; a transmission sensor configured to sense light transmission through the light-transmissive transfer belt, the sensor comprising: a light source positioned over the light-transmissive transfer belt configured to apply light to a position on a surface of the light-transmissive transfer belt where the amount of toner mass is to be transferred, and a receiver positioned on a side of the light-transmissive transfer belt opposite from the light source configured to receive and measure an amount of light that passes through the light-transmissive transfer belt; and a measurement and control circuit connected to the transmission sensor and configured to compute a difference in at least one of intensity and frequency of transmitted light with and without an amount of toner mass on the surface of the light-transmissive transfer belt, wherein only the difference in transmitted light is used to calculate a transfer parameter that is configured to adjust toner transfer performance. a light source positioned over the light-transmissive transfer belt configured to apply light to a position on a surface of the light-transmissive transfer belt where the amount of toner mass is to be transferred, and a receiver positioned on a side of the light-transmissive transfer belt opposite from the light source configured to receive and measure an amount of light that passes through the light-transmissive transfer belt; and a measurement and control circuit connected to the transmission sensor and configured to compute a difference in at least one of intensity and frequency of transmitted light with and without an amount of toner mass on the surface of the light-transmissive transfer belt, wherein only the difference in transmitted light is used to calculate a transfer parameter that is configured to adjust toner transfer performance.
A supply device for dough blanks (3, 3'), in particular for preformed dough strands for producing pretzels, which comprises a first conveyor belt and at least one second conveyor belt, which are placed one behind the other, the dough blanks being arranged on the first conveyor belt at the start of the supply process and being transferred from the first conveyor belt to the second conveyor belt, the speed of the at least one second conveyor belt being higher by a predefined amount than the speed of the first conveyor belt during operation of the supply device, as a result of which the dough blanks are stretched and aligned parallel to the conveying direction of the second conveyor belt during transfer from the first conveyor belt to the second conveyor belt, characterised in that the coefficient of static friction of the at least one second conveyor belt is greater than the coefficient of static friction of the first conveyor belt.
A portable terminal comprising: a power receiving circuit configured to wirelessly receive power from an external wireless charging apparatus; a shield member mounted to a rear surface of the power receiving circuit; a metal plate, wherein the metal plate is formed of a steel use stainless material, a circuit board, wherein the metal plate is located at an upper end of the circuit board, wherein the metal plate is configured to receive heat from the circuit board, and the circuit board being electrically connected to the power receiving circuit; and a heat dispersion member connected to the shield member and the metal plate and configured to disperse a heat generated from the shield member or the metal plate, wherein the heat dispersion member comprises a first dispersion sheet, a second dispersion sheet and a plurality of connection passages integrally connecting the first and second dispersion sheet, wherein a rear surface of the circuit board is provided on an upper surface of the first dispersion sheet, wherein a rear surface of the shield member is mounted on an upper surface of the second dispersion sheet, wherein the first dispersion sheet is configured to receive heat of the metal plate and the circuit board and to transfer and disperse the heat to the rear surface of the shield member, and the second dispersion sheet is configured to receive heat of the shield member and to transfer and disperse the heat to the metal plate. a power receiving circuit configured to wirelessly receive power from an external wireless charging apparatus; a shield member mounted to a rear surface of the power receiving circuit; a metal plate, wherein the metal plate is formed of a steel use stainless material, a circuit board, wherein the metal plate is located at an upper end of the circuit board, wherein the metal plate is configured to receive heat from the circuit board, and the circuit board being electrically connected to the power receiving circuit; and a heat dispersion member connected to the shield member and the metal plate and configured to disperse a heat generated from the shield member or the metal plate, wherein the heat dispersion member comprises a first dispersion sheet, a second dispersion sheet and a plurality of connection passages integrally connecting the first and second dispersion sheet, wherein a rear surface of the circuit board is provided on an upper surface of the first dispersion sheet, wherein a rear surface of the shield member is mounted on an upper surface of the second dispersion sheet, wherein the first dispersion sheet is configured to receive heat of the metal plate and the circuit board and to transfer and disperse the heat to the rear surface of the shield member, and the second dispersion sheet is configured to receive heat of the shield member and to transfer and disperse the heat to the metal plate.
A granular absorbent product comprised of: (a) granules of an extruded granular absorbent comprised of at least 5 wt% cold water soluble binder by extruded granular absorbent weight that is formed in or during extrusion in an extruder of or from starch in the admixture from which the granular absorbent is extruded; and (b) granules of a non-extruded granular material comprised of cellulose or a cellulosic material; and wherein the proportion of granules of the extruded granular absorbent relative to the granules of the non-extruded granular material is great enough for at least a plurality of the extruded granular absorbent granules and at least a plurality of non-extruded granular material granules to agglutinate into a clump thereof when at least the plurality of the extruded granular absorbent granules is wetted with water or urine; and wherein the proportion of the non-extruded granular material relative to the extruded granular absorbent is at least 60 wt% of the non-extruded granular material and no more than 40 wt% of the extruded granular absorbent. (a) granules of an extruded granular absorbent comprised of at least 5 wt% cold water soluble binder by extruded granular absorbent weight that is formed in or during extrusion in an extruder of or from starch in the admixture from which the granular absorbent is extruded; and (b) granules of a non-extruded granular material comprised of cellulose or a cellulosic material; and wherein the proportion of granules of the extruded granular absorbent relative to the granules of the non-extruded granular material is great enough for at least a plurality of the extruded granular absorbent granules and at least a plurality of non-extruded granular material granules to agglutinate into a clump thereof when at least the plurality of the extruded granular absorbent granules is wetted with water or urine; and wherein the proportion of the non-extruded granular material relative to the extruded granular absorbent is at least 60 wt% of the non-extruded granular material and no more than 40 wt% of the extruded granular absorbent. wherein the proportion of granules of the extruded granular absorbent relative to the granules of the non-extruded granular material is great enough for at least a plurality of the extruded granular absorbent granules and at least a plurality of non-extruded granular material granules to agglutinate into a clump thereof when at least the plurality of the extruded granular absorbent granules is wetted with water or urine; and wherein the proportion of the non-extruded granular material relative to the extruded granular absorbent is at least 60 wt% of the non-extruded granular material and no more than 40 wt% of the extruded granular absorbent.
An apparatus comprising a two dimensional array of pixel sensors (166, 167) and a controller, each pixel sensor comprising: a single main photodiode; an autofocus photodiode; and a microlens that concentrates light onto said main photodiode and said autofocus photodiode, said two-dimensional array of pixel sensors comprising first and second autofocus arrays of pixel sensors, said pixel sensors in said first autofocus array of pixel sensors having said autofocus photodiode positioned such that each autofocus photodiode receives light preferentially from one half of said microlens in that pixel sensor and said pixel sensors in said second autofocus array of pixel sensors having each autofocus photodiode positioned such that each autofocus photodiode receives light preferentially from said other half of said microlens in that pixel sensor; wherein the controller is configured to generate an autofocus signal, wherein generating said autofocus signal comprises computing a cross-correlation function of signals from said autofocus photodiodes in said first autofocus array of pixel sensors with a signal from said autofocus photodiodes in said second autofocus arrays of pixel sensors; characterized in that said autofocus photodiode comprises a parasitic photodiode associated with a floating diffusion node in each of said pixel sensors. a single main photodiode; an autofocus photodiode; and a microlens that concentrates light onto said main photodiode and said autofocus photodiode, said two-dimensional array of pixel sensors comprising first and second autofocus arrays of pixel sensors, said pixel sensors in said first autofocus array of pixel sensors having said autofocus photodiode positioned such that each autofocus photodiode receives light preferentially from one half of said microlens in that pixel sensor and said pixel sensors in said second autofocus array of pixel sensors having each autofocus photodiode positioned such that each autofocus photodiode receives light preferentially from said other half of said microlens in that pixel sensor; wherein the controller is configured to generate an autofocus signal, wherein generating said autofocus signal comprises computing a cross-correlation function of signals from said autofocus photodiodes in said first autofocus array of pixel sensors with a signal from said autofocus photodiodes in said second autofocus arrays of pixel sensors; characterized in that said autofocus photodiode comprises a parasitic photodiode associated with a floating diffusion node in each of said pixel sensors.