mhurhangee/patent-ind-claim-en huggingface dataset:
A cover glass sheet configured to cover a display element , having: (i) a first chemically-etched textured surface having a surface roughness defined by a first arithmetic amplitude value, Ra1, comprised in the range of 0.12 μm ≤ Ra1 ≤ 0.5 μm and a first spacing value, Rsm1, comprised in the range of 45 μm ≤ Rsm1 ≤ 200 μm both measured on an evaluation length of 12 mm and with a Gaussian filter of which the cut-off wavelength is 0.8 mm, and having a first transmission haze value, Haze1, equal to or lower than 10%, (Haze1 ≤ 10%), and a first clarity value, Clarity1; wherein the first textured surface is configured to face the display element and (ii) a second chemically-etched textured surface having a surface roughness defined by a second arithmetic amplitude value, Ra2, comprised in the range of 0.08 μm ≤ Ra2 ≤ 0.5 μm and a second spacing value, Rsm2, comprised in the range of 45 μm ≤ Rsm2 ≤ 200 μm, both measured on an evaluation length of 12 mm and with a Gaussian filter of which the cut-off wavelength is 0.8 mm and having a second transmission haze value, Haze2; characterised in that the second transmission haze value, Haze2, is equal to or lower than a maximum haze value, HazeMax (Haze2 ≤ HazeMax) wherein : HazeMax = 4.99 − 8.13 10 − 1 Haze1 + 4.67 10 − 2 Clarity1 % (i) a first chemically-etched textured surface having a surface roughness defined by a first arithmetic amplitude value, Ra1, comprised in the range of 0.12 μm ≤ Ra1 ≤ 0.5 μm and a first spacing value, Rsm1, comprised in the range of 45 μm ≤ Rsm1 ≤ 200 μm both measured on an evaluation length of 12 mm and with a Gaussian filter of which the cut-off wavelength is 0.8 mm, and having a first transmission haze value, Haze1, equal to or lower than 10%, (Haze1 ≤ 10%), and a first clarity value, Clarity1; wherein the first textured surface is configured to face the display element and (ii) a second chemically-etched textured surface having a surface roughness defined by a second arithmetic amplitude value, Ra2, comprised in the range of 0.08 μm ≤ Ra2 ≤ 0.5 μm and a second spacing value, Rsm2, comprised in the range of 45 μm ≤ Rsm2 ≤ 200 μm, both measured on an evaluation length of 12 mm and with a Gaussian filter of which the cut-off wavelength is 0.8 mm and having a second transmission haze value, Haze2;
An oil separator comprising: a cover attached to an opening portion on a discharge side of a compressor ; a discharge flow path formed in an inside of the cover ; and an oil separation portion configured to separate an oil from a fluid that has flowed out from the discharge flow path , characterised by a dividing wall portion that partitions an internal space facing the opening portion and being different from the discharge flow path into a plurality of spaces (S) is provided in the inside of the cover , wherein the internal space has a shape extending in a first direction, wherein the dividing wall portion includes a first wall that extends in the first direction and that partitions the internal space in a second direction orthogonal to the first direction, wherein the internal space has a shape extending in a vertical direction that is the first direction, and wherein the first wall extends in the vertical direction and partitions the internal space in a horizontal direction that is the second direction. a cover attached to an opening portion on a discharge side of a compressor ; a discharge flow path formed in an inside of the cover ; and an oil separation portion configured to separate an oil from a fluid that has flowed out from the discharge flow path , characterised by a dividing wall portion that partitions an internal space facing the opening portion and being different from the discharge flow path into a plurality of spaces (S) is provided in the inside of the cover , wherein the internal space has a shape extending in a first direction, wherein the dividing wall portion includes a first wall that extends in the first direction and that partitions the internal space in a second direction orthogonal to the first direction, wherein the internal space has a shape extending in a vertical direction that is the first direction, and wherein the first wall extends in the vertical direction and partitions the internal space in a horizontal direction that is the second direction.
A user equipment , UE, comprising: a processor ; and memory in electronic communication with the processor , wherein instructions stored in the memory are executable to: receive information to configure a first cell group , CG, and a second CG ; receive information to configure a guaranteed power of the first CG and a guaranteed power of the second CG ; and in a situation in which a timing difference between the first CG and the second CG is more than a threshold, wherein subframe n of the first CG overlaps subframe m-1 and subframe m of the second CG , perform uplink power allocation in the subframe n of the first CG , wherein the uplink power allocation is determined using a parameter P CG1,n given by equation : P CG 1 , n = P c max − max P CG 2 , m − 1 , P Guaranteed , CG 2 where P cmax is a maximum allowed transmission power for the UE , P CG2, m -1 is a power allocated in the subframe m -1 of the second CG and P Guaranteed, CG2 is the guaranteed power of the second CG . a processor ; and memory in electronic communication with the processor , wherein instructions stored in the memory are executable to: receive information to configure a first cell group , CG, and a second CG ; receive information to configure a guaranteed power of the first CG and a guaranteed power of the second CG ; and in a situation in which a timing difference between the first CG and the second CG is more than a threshold, wherein subframe n of the first CG overlaps subframe m-1 and subframe m of the second CG , perform uplink power allocation in the subframe n of the first CG , wherein the uplink power allocation is determined using a parameter P CG1,n given by equation : P CG 1 , n = P c max − max P CG 2 , m − 1 , P Guaranteed , CG 2 where P cmax is a maximum allowed transmission power for the UE , P CG2, m -1 is a power allocated in the subframe m -1 of the second CG and P Guaranteed, CG2 is the guaranteed power of the second CG . receive information to configure a first cell group , CG, and a second CG ; receive information to configure a guaranteed power of the first CG and a guaranteed power of the second CG ; and in a situation in which a timing difference between the first CG and the second CG is more than a threshold, wherein subframe n of the first CG overlaps subframe m-1 and subframe m of the second CG , perform uplink power allocation in the subframe n of the first CG , wherein the uplink power allocation is determined using a parameter P CG1,n given by equation : P CG 1 , n = P c max − max P CG 2 , m − 1 , P Guaranteed , CG 2 where P cmax is a maximum allowed transmission power for the UE , P CG2, m -1 is a power allocated in the subframe m -1 of the second CG and P Guaranteed, CG2 is the guaranteed power of the second CG .
A powder-cleaning device for dental use, comprising: - a proximal arm , configured for attachment to a source of compressed air; - a distal arm , having a distal end portion configured for dispensing a mixture of air and abrasive powder; - a turbulence chamber , configured to receive the abrasive powder, which turbulence chamber is interposed between said proximal arm and said distal arm and in fluid communication with both in such a way that the compressed air can be adducted in the turbulence chamber through said proximal arm and the mixture of air and powder can escape within said distal arm ; - a controller for compressed air flow, arranged on said proximal arm upstream of said turbulence chamber , which controller comprises: - a plug or pin , which can be selectively translated to occlude a feeding channel of compressed air of said proximal arm , and - an actuation element , operable in rotation by an operator, wherein said actuation element and said plug or pin comprise respective shape-coupling surfaces , wherein said controller allows a modulation of said flow rate between a condition of minimum air supply, which preferably corresponds to zero flow, and a condition of maximum air supply, which device is configured as a handpiece so as to be grasped by an operator at said proximal and/or distal arm . - a proximal arm , configured for attachment to a source of compressed air; - a distal arm , having a distal end portion configured for dispensing a mixture of air and abrasive powder; - a turbulence chamber , configured to receive the abrasive powder, which turbulence chamber is interposed between said proximal arm and said distal arm and in fluid communication with both in such a way that the compressed air can be adducted in the turbulence chamber through said proximal arm and the mixture of air and powder can escape within said distal arm ; - a controller for compressed air flow, arranged on said proximal arm upstream of said turbulence chamber , which controller comprises: - a plug or pin , which can be selectively translated to occlude a feeding channel of compressed air of said proximal arm , and - an actuation element , operable in rotation by an operator, wherein said actuation element and said plug or pin comprise respective shape-coupling surfaces , - a plug or pin , which can be selectively translated to occlude a feeding channel of compressed air of said proximal arm , and - an actuation element , operable in rotation by an operator,
A method performed by a base station of a cellular communication network, the method comprising: collecting handover data correlated with mobility data of a plurality of terminal devices; determining, based on the collected data, one or more trajectories associated with one or more handover anomalies; monitoring mobility and/or cellular connectivity of terminal devices by receiving measurement report from the terminal devices; detecting that a terminal device has or is going to have a trajectory previously determined to be associated with a handover anomaly, wherein the handover anomaly is a ping pong handover anomaly or a short stay handover anomaly; determining terminal device specific handover parameters for said terminal device to avoid said handover anomaly; causing the terminal device to utilize said terminal device specific handover parameters in one or more handovers associated with the terminal device; monitoring the one or more handovers performed on the basis of said terminal device specific handover parameters; and based on the monitoring, if said handover anomaly is avoided by utilizing said terminal device specific handover parameters, storing an indication about said terminal device specific handover parameters avoiding said handover anomaly with respect to said trajectory. collecting handover data correlated with mobility data of a plurality of terminal devices; determining, based on the collected data, one or more trajectories associated with one or more handover anomalies; monitoring mobility and/or cellular connectivity of terminal devices by receiving measurement report from the terminal devices; detecting that a terminal device has or is going to have a trajectory previously determined to be associated with a handover anomaly, wherein the handover anomaly is a ping pong handover anomaly or a short stay handover anomaly; determining terminal device specific handover parameters for said terminal device to avoid said handover anomaly; causing the terminal device to utilize said terminal device specific handover parameters in one or more handovers associated with the terminal device; monitoring the one or more handovers performed on the basis of said terminal device specific handover parameters; and based on the monitoring, if said handover anomaly is avoided by utilizing said terminal device specific handover parameters, storing an indication about said terminal device specific handover parameters avoiding said handover anomaly with respect to said trajectory.
A multifunctional anti-theft device which is stationary or battery-operated, watertight or water-proofed equipped with a microprocessor/chip, can be flexibly attached to or integrated into one or more mobile or movable goods and objects, consisting of two parts and designed in such a way, in that, when the object or the movable goods and thus the first part of the anti-theft device is moved, triggers an alarm and can be sent to a second part which is separate and independent from the first part and is able to receive a signal from the first part, characterized in that the first part of the anti-theft device is equipped with a sensor with which the exact movement of the first part is recorded, wherein certain , predetermined or individual movements of at least the first part can be used for selecting alarm settings, for menu guidance or alarm control of the first and second part of the multifunctional anti-theft device, in order to trigger selectively, single or combined distance -, space - and/or movement-alarm (action).
Arrangement for a motor vehicle comprising a steering wheel , having an electrode , and evaluation electronics , which are to be protected against an electrical overvoltage and which are electrically conductively connected to the electrode for capacitive detection of a touch on the steering wheel , wherein the steering wheel has a steering wheel rim and an electrically conductive steering wheel core for fixing to a steering wheel shaft , wherein the steering wheel core is electrically conductively connected to a first ground connection via a first ohmic resistor (R), wherein the evaluation electronics are designed to apply an electrical measuring potential to the electrode for touch detection in order to detect the touch on the steering wheel rim on the basis of a change in a measuring capacitance formed between the electrode and the steering wheel core ; characterized in that the evaluation electronics are furthermore electrically conductively connected to a second ground connection , wherein the first ground connection and the second ground connection are arranged spatially separate from one another and are electrically conductively connected via a ground path ; a connection , which is provided between the electrode and the steering wheel core and which has an overvoltage discharge element , so that the connection is high-resistance when a measuring potential is applied on the electrode side and low-resistance in the event of an overvoltage on the electrode side, in order to discharge the overvoltage to the first ground connection via the steering wheel core in the latter case.
A DNA donor repair template comprising from 5' to 3': (a) a 5' homology arm homologous to a DNA sequence 5' of a first target site; (b) a 5' homology arm homologous to a DNA sequence 5' of a second target site; (c) a transgene; (d) a 3' homology arm homologous to a DNA sequence 3' of the second target site; and (e) a 3' homology arm homologous to a DNA sequence 3' of the first target site; wherein the first target site is not identical to the second target site. (a) a 5' homology arm homologous to a DNA sequence 5' of a first target site; (b) a 5' homology arm homologous to a DNA sequence 5' of a second target site; (c) a transgene; (d) a 3' homology arm homologous to a DNA sequence 3' of the second target site; and (e) a 3' homology arm homologous to a DNA sequence 3' of the first target site;
A method for preventing hardener compounds to be formed from hardener precursors in an aerosol formulation suitable for use in aerosol can for making a paint or adhesive, wherein said aerosol formulation is prepared by adding into said can following compounds: - paint forming chemicals comprising an epoxy resin and an epoxy hardener precursor; - a weak acid and a possible solvent; and mixing said paint forming chemicals; weak acid and a possible solvent to obtain a mixture before or after adding said compounds into said can, characterized thereof, that - the weak acid (XCOOH) is added only a catalytic amount from 0.1 to 10 % by weight (w/w) of the aerosol formulation, preferable 0.1 to 5 % by weight (w/w) of the aerosol formulation, wherein said weak acid is selected from the group in which weak acid have the dissociation constant pKa value in the range from 1.2 to 5.2, to shift, in the presence of (free) water and ketone, the reaction balance between epoxy hardener precursor and epoxy hardener amines to favour the formation of epoxy hardener precursors according to general reaction : so that formation of epoxy hardener amines is prevented from said epoxy hardener precursors; wherein said epoxy hardener precursors, are selected from the group composing of an imine, an enamine, a Mannich base, an aldimine and mixtures thereof. - paint forming chemicals comprising an epoxy resin and an epoxy hardener precursor; - a weak acid and a possible solvent; and - the weak acid (XCOOH) is added only a catalytic amount from 0.1 to 10 % by weight (w/w) of the aerosol formulation, preferable 0.1 to 5 % by weight (w/w) of the aerosol formulation, wherein said weak acid is selected from the group in which weak acid have the dissociation constant pKa value in the range from 1.2 to 5.2, to shift, in the presence of (free) water and ketone, the reaction balance between epoxy hardener precursor and epoxy hardener amines to favour the formation of epoxy hardener precursors according to general reaction : so that formation of epoxy hardener amines is prevented from said epoxy hardener precursors; wherein said epoxy hardener precursors, are selected from the group composing of an imine, an enamine, a Mannich base, an aldimine and mixtures thereof.
A variable angle locking implant comprising: a bone plate having a lower surface , an upper surface , and at least one opening extending from the lower surface to the upper surface along an axis , the opening having an inner surface with a plurality of fins oriented along a plane , characterised in that lower surface comprises a flat bone contacting surface and/or an arcuate bone contacting surface, wherein: the axis is non-perpendicular to the flat bone contacting surface and/or the plane is non-parallel with the flat bone contacting surface, and/or the axis is non-perpendicular to a tangent (T-T) of the arcuate bone contacting surface that intersects the axis at a point (P) along the arcuate bone contacting surface and/or the plane is non-parallel to the tangent. the axis is non-perpendicular to the flat bone contacting surface and/or the plane is non-parallel with the flat bone contacting surface, and/or the axis is non-perpendicular to a tangent (T-T) of the arcuate bone contacting surface that intersects the axis at a point (P) along the arcuate bone contacting surface and/or the plane is non-parallel to the tangent.
A plant-growing medium based on polyvinyl formal granules, characterised in that the polyvinyl formal granules are glued together as a set.
A system for monitoring wear state of the wear plates which are positioned on the equipment exposing to the physical and mechanical wear and which aims to prolong the lifespan of the equipment, comprising the following; - at least one housing , which is mounted on the wear plate and is worn simultaneously together with the wear plate , - at least one tag housing , which is affixed on the housing and ensures to attach at least a radio frequency identification tag thereon, - said at least one radio frequency identification tag , gives a signal to carry out the signal exchange with the tag reader and antenna system , - a wear plate , that ensures to prolong the lifespan of the equipment as it is mounted on the equipments those are exposed to physical and mechanical wear - at least a tag reader and antenna system , which receives a signal from the radio frequency identification (RFID) tag to perform the signal exchange, and characterized in that it further comprises - a wear sensing system comprising said at least one trigger mechanism , which is activated, when the wear occurring in the housing reaches a critical level, and further comprises a metal needle to break the radio frequency identification tag and a metal spring to operate the needle . - at least one housing , which is mounted on the wear plate and is worn simultaneously together with the wear plate , - at least one tag housing , which is affixed on the housing and ensures to attach at least a radio frequency identification tag thereon, - said at least one radio frequency identification tag , gives a signal to carry out the signal exchange with the tag reader and antenna system , - a wear plate , that ensures to prolong the lifespan of the equipment as it is mounted on the equipments those are exposed to physical and mechanical wear - at least a tag reader and antenna system , which receives a signal from the radio frequency identification (RFID) tag to perform the signal exchange, and characterized in that it further comprises - a wear sensing system comprising said at least one trigger mechanism , which is activated, when the wear occurring in the housing reaches a critical level, and further comprises a metal needle to break the radio frequency identification tag and a metal spring to operate the needle .
A light-field capture device comprising: a photo-sensor , a main lens configured to refract light from a scene towards an image focal field, a micro-lens array positioned in the image focal field between the main lens and the photo-sensor , each micro-lens being configured to project a micro-lens image onto a respective area of the photo-sensor ; wherein the light-field capture device comprises at least one calculation unit connected to at least one of the respective areas and configured to obtain homogeneity data, corresponding to a standard deviation (S) of the input pixels and representative of the homogeneity of input pixels of said respective area , and to provide, based on the homogeneity data, output data representative of the input pixels of said respective area ; the output data comprising either a number of output pixels corresponding to the number of input pixels, or a single output pixel, depending on a comparison of the homogeneity data with a homogeneity threshold. a photo-sensor , a main lens configured to refract light from a scene towards an image focal field, a micro-lens array positioned in the image focal field between the main lens and the photo-sensor , each micro-lens being configured to project a micro-lens image onto a respective area of the photo-sensor ; wherein the light-field capture device comprises at least one calculation unit connected to at least one of the respective areas and configured to obtain homogeneity data, corresponding to a standard deviation (S) of the input pixels and representative of the homogeneity of input pixels of said respective area , and to provide, based on the homogeneity data, output data representative of the input pixels of said respective area ; the output data comprising either a number of output pixels corresponding to the number of input pixels, or a single output pixel, depending on a comparison of the homogeneity data with a homogeneity threshold.