mhurhangee/patent-ind-claim-en huggingface dataset:
Junction barrier Schottky diode comprising: - a substrate ; - a first semiconductor layer arranged on a first face of the substrate and having a first type of conductivity, the first semiconductor layer comprising a projecting portion delimited by a trench ; - a second semiconductor layer arranged on the projecting portion of the first semiconductor layer and having a second type of conductivity opposite to the first type of conductivity; - an electrically insulating layer arranged at the bottom of the trench ; - a first electrode comprising: o a first portion in Schottky contact with the first semiconductor layer , the first portion of the first electrode being arranged on the electrically insulating layer and against a side wall of the projecting portion of the first semiconductor layer ; ∘ a second portion in ohmic contact with the second semiconductor layer ; - a second electrode in ohmic contact with the substrate . - a substrate ; - a first semiconductor layer arranged on a first face of the substrate and having a first type of conductivity, the first semiconductor layer comprising a projecting portion delimited by a trench ; - a second semiconductor layer arranged on the projecting portion of the first semiconductor layer and having a second type of conductivity opposite to the first type of conductivity; - an electrically insulating layer arranged at the bottom of the trench ; - a first electrode comprising: o a first portion in Schottky contact with the first semiconductor layer , the first portion of the first electrode being arranged on the electrically insulating layer and against a side wall of the projecting portion of the first semiconductor layer ; ∘ a second portion in ohmic contact with the second semiconductor layer ; o a first portion in Schottky contact with the first semiconductor layer , the first portion of the first electrode being arranged on the electrically insulating layer and against a side wall of the projecting portion of the first semiconductor layer ; ∘ a second portion in ohmic contact with the second semiconductor layer ; - a second electrode in ohmic contact with the substrate .
A method of embedding a pattern as a watermark into a content segment , comprising modifying the content segment by inserting a set of substantially imperceptible features that relate to the pattern, characterised in , determining an impulse response of a filter to be used for detecting the pattern; inserting the time-reversed impulse response of the filter into the segment as the set of imperceptible features; wherein the filter is an infinite impulse response filter; wherein the infinite impulse response filter comprises a semi-white frequency spectrum and provides a pseudo-random time-domain response.
A rack system for a data center , comprising: a plurality of server racks configured to house servers therein, each server rack being configured to store the servers accessible via a front side of the server rack , each server rack defining at least one housing section for receiving one or more of the servers therein; at least one rack column being formed by at least some of the server racks being disposed above one another, each server rack of the at least one rack column having a rack depth measured in a front-to-rear direction extending from the front side to a rear side of the server rack ; and the rack system being characterised in that the rack system further comprises: at least one supporting pedestal disposed below the at least one rack column in order to support the at least one rack column , the at least one supporting pedestal being configured to be positioned on a ground surface of the data center to distribute a load of the at least one rack column on the ground surface, each of the at least one supporting pedestal having a pedestal depth measured in the front-to-rear direction, the pedestal depth being greater than the rack depth, a ratio of the pedestal depth over the rack depth being between 1.2 and 2.5 inclusively. a plurality of server racks configured to house servers therein, each server rack being configured to store the servers accessible via a front side of the server rack , each server rack defining at least one housing section for receiving one or more of the servers therein; at least one rack column being formed by at least some of the server racks being disposed above one another, each server rack of the at least one rack column having a rack depth measured in a front-to-rear direction extending from the front side to a rear side of the server rack ; and the rack system being characterised in that the rack system further comprises: at least one supporting pedestal disposed below the at least one rack column in order to support the at least one rack column , the at least one supporting pedestal being configured to be positioned on a ground surface of the data center to distribute a load of the at least one rack column on the ground surface, each of the at least one supporting pedestal having a pedestal depth measured in the front-to-rear direction, the pedestal depth being greater than the rack depth, a ratio of the pedestal depth over the rack depth being between 1.2 and 2.5 inclusively. at least one supporting pedestal disposed below the at least one rack column in order to support the at least one rack column , the at least one supporting pedestal being configured to be positioned on a ground surface of the data center to distribute a load of the at least one rack column on the ground surface, each of the at least one supporting pedestal having a pedestal depth measured in the front-to-rear direction, the pedestal depth being greater than the rack depth, a ratio of the pedestal depth over the rack depth being between 1.2 and 2.5 inclusively.
A method supporting network adaptation by a user equipment, UE, the method comprising: receiving, by the UE, a discovery reference signal, DRS, from a network controller, the network controller being turned off; performing, by the UE, radio resource management, RRM, measurements according to the DRS, wherein the RRM measurements according to DRS include at least one of a reference signal received power, RSRP, and a reference signal received quality, RSRQ; reporting , by the UE, the RRM measurements to a network associated with the network controller; receiving, at the UE, a radio resource control, RRC, signaling from the network, the RRC signaling based on the RRM measurements including configuration information allowing a connection between the UE and the network controller; and connecting, by the UE, to the network controller in accordance with the configuration information and receiving, by the UE, a cell-specific reference signal, CRS, from the network controller when the network controller being turned on; wherein the network controller is turned on after the reporting of the RRM measurement by the UE. receiving, by the UE, a discovery reference signal, DRS, from a network controller, the network controller being turned off; performing, by the UE, radio resource management, RRM, measurements according to the DRS, wherein the RRM measurements according to DRS include at least one of a reference signal received power, RSRP, and a reference signal received quality, RSRQ; reporting , by the UE, the RRM measurements to a network associated with the network controller; receiving, at the UE, a radio resource control, RRC, signaling from the network, the RRC signaling based on the RRM measurements including configuration information allowing a connection between the UE and the network controller; and connecting, by the UE, to the network controller in accordance with the configuration information and receiving, by the UE, a cell-specific reference signal, CRS, from the network controller when the network controller being turned on; wherein the network controller is turned on after the reporting of the RRM measurement by the UE.
Expansible anchor made of metal for anchoring in a drilled hole in an anchoring substrate , especially made of concrete, for fixing an article , having - a shank having a load-application means , - an expander body which widens conically in the direction of introduction (E) at a first cone angle (W s ) up to a maximum diameter (D), and - with an expansion sleeve which is expansible by relative displacement of the expander body , and which - has a substantially cylindrical main body having a first wall thickness (t G ) and - at its end that is at the front in the direction of introduction (E) a continuation piece having a smaller second wall thickness (t F ), - wherein the transition from the main body to the continuation piece is formed by a diameter step on the outer side , characterised in that - neither the expander body nor the expansion sleeve has an anti-friction coating - and in respect of the first wall thickness (t G ) of the main body the following applies: 0.08 * D + 0.20 mm ≤ t G ≤ 0.13 * D + 0.25 mm - and in respect of the second wall thickness (t F ) of the continuation piece the following applies: 0.26 * t G + 0.03 mm ≤ t F ≤ 0.60 * t G + 0.30 mm - and in respect of the first cone angle (W s ) of the expander body the following applies: 0.11° * D/mm + 8.83° ≤ W s ≤ 0.17° * D/mm + 11.50°. - a shank having a load-application means , - an expander body which widens conically in the direction of introduction (E) at a first cone angle (W s ) up to a maximum diameter (D), and - with an expansion sleeve which is expansible by relative displacement of the expander body , and which - has a substantially cylindrical main body having a first wall thickness (t G ) and - at its end that is at the front in the direction of introduction (E) a continuation piece having a smaller second wall thickness (t F ), - wherein the transition from the main body to the continuation piece is formed by a diameter step on the outer side , - neither the expander body nor the expansion sleeve has an anti-friction coating - and in respect of the first wall thickness (t G ) of the main body the following applies: 0.08 * D + 0.20 mm ≤ t G ≤ 0.13 * D + 0.25 mm - and in respect of the second wall thickness (t F ) of the continuation piece the following applies: 0.26 * t G + 0.03 mm ≤ t F ≤ 0.60 * t G + 0.30 mm - and in respect of the first cone angle (W s ) of the expander body the following applies: 0.11° * D/mm + 8.83° ≤ W s ≤ 0.17° * D/mm + 11.50°.
A system for verifying an instrumentation value issued by an aircraft transponder and an aircraft with an Automatic Dependent Surveillance-Broadcast (ADS-B) system comprising: an Air Data Test Module (ADTM) configured to pneumatically simulate at least one instrumentation value based upon an applied pressure set-point, the pneumatically simulated instrumentation value corresponding to the applied pressure set point; the ADTM including at least one pressure source and a manifold system pneumatically coupled to the at least one pressure source ; the manifold system comprising two channels (CS1, CS2) configured to pressurize static ports of an aircraft, and two channels (CP1, CP2) configured to pressurize pitot ports of the aircraft, the manifold system being arranged to simultaneously pneumatically pressurize a first and a second pitot-static system to simulate the at least one instrumentation value; an aircraft ADS-B transponder to transmit the at least one pneumatically simulated instrumentation value; a receiver module configured to receive the at least one pneumatically simulated instrumentation value transmitted by the transponder , and a signal processor operative to control the ADTM, command a prescribed instrumentation value to be simulated by the ADTM, compare the prescribed instrumentation value to the received instrumentation value, and issue a pass signal if the values match and a fail signal if the values do not match. an Air Data Test Module (ADTM) configured to pneumatically simulate at least one instrumentation value based upon an applied pressure set-point, the pneumatically simulated instrumentation value corresponding to the applied pressure set point; the ADTM including at least one pressure source and a manifold system pneumatically coupled to the at least one pressure source ; the manifold system comprising two channels (CS1, CS2) configured to pressurize static ports of an aircraft, and two channels (CP1, CP2) configured to pressurize pitot ports of the aircraft, the manifold system being arranged to simultaneously pneumatically pressurize a first and a second pitot-static system to simulate the at least one instrumentation value; an aircraft ADS-B transponder to transmit the at least one pneumatically simulated instrumentation value; a receiver module configured to receive the at least one pneumatically simulated instrumentation value transmitted by the transponder , and a signal processor operative to control the ADTM, command a prescribed instrumentation value to be simulated by the ADTM, compare the prescribed instrumentation value to the received instrumentation value, and issue a pass signal if the values match and a fail signal if the values do not match.
A method for producing a retainer , having the following steps of the method: a) modelling an individual contour of the teeth to be stabilized, b) carving the retainer out of a sheet of metal, characterized by the following steps: c) converting the modelled contour of the teeth into a model, preferably a digital model and designing the retainer on the basis of the model, d) carving the designed retainer from the metal sheet on the basis of the model by means of a computer-controlled method so that after carving out the metal sheet, the retainer is immediately in its final shape, wherein a carved surface of the retainer faces a surface of a tooth against which the retainer abuts when in its installed condition, and an upper side or a lower side of the retainer corresponds to an original plane of the metal sheet. a) modelling an individual contour of the teeth to be stabilized, b) carving the retainer out of a sheet of metal, characterized by the following steps: c) converting the modelled contour of the teeth into a model, preferably a digital model and designing the retainer on the basis of the model, d) carving the designed retainer from the metal sheet on the basis of the model by means of a computer-controlled method so that after carving out the metal sheet, the retainer is immediately in its final shape, wherein a carved surface of the retainer faces a surface of a tooth against which the retainer abuts when in its installed condition, and an upper side or a lower side of the retainer corresponds to an original plane of the metal sheet.
A method for performing a computational task using a network of lighting apparatuses , the method comprising the following steps carried out by a lighting apparatus in the network of lighting apparatuses: - receiving task schedules from lighting apparatuses in the network of lighting apparatuses; - determining , based on the received task schedules, an amount of computational resources available from the lighting apparatuses; - identifying a subgroup of lighting apparatuses in the network of lighting apparatuses that have available computational resources; and - distributing the computational task to the identified subgroup of lighting apparatuses in the network of lighting apparatuses, characterized in that the method comprises the following further step carried out by said lighting apparatus: - determining an occupancy pattern of a room illuminated by at least one lighting apparatus in the network of lighting apparatuses; wherein identifying the subgroup of lighting apparatuses is at least partially based on the determined occupancy pattern of the room. - receiving task schedules from lighting apparatuses in the network of lighting apparatuses; - determining , based on the received task schedules, an amount of computational resources available from the lighting apparatuses; - identifying a subgroup of lighting apparatuses in the network of lighting apparatuses that have available computational resources; and - distributing the computational task to the identified subgroup of lighting apparatuses in the network of lighting apparatuses, - determining an occupancy pattern of a room illuminated by at least one lighting apparatus in the network of lighting apparatuses;
A hub assembly for a pen injection device, comprising: a hub for connecting to the pen injection device; a needle received by said hub ; and a compressible member connected to said hub and compressible between a first position that entirely covers said needle and a second position that exposes the needle for an injection, whereby said compressible member has a compressible portion , wherein said compressible member has a non-compressible portion secured to said hub , characterized in that the compressible member comprises adhesive microspheres, whereby the adhesive microspheres rupture when the compressible member is compressed such that the compressible member hardens to prevent reuse when returned to a non-compressed position, or the compressible member when contacted by medicament changes color to indicate priming of the needle . a hub for connecting to the pen injection device; a needle received by said hub ; and a compressible member connected to said hub and compressible between a first position that entirely covers said needle and a second position that exposes the needle for an injection, whereby said compressible member has a compressible portion , wherein said compressible member has a non-compressible portion secured to said hub , characterized in that the compressible member comprises adhesive microspheres, whereby the adhesive microspheres rupture when the compressible member is compressed such that the compressible member hardens to prevent reuse when returned to a non-compressed position, or the compressible member when contacted by medicament changes color to indicate priming of the needle .
A tire comprising: a pattern portion , in which a plurality of ridges having ridgelines (CL) are arranged adjacent to each other, on a tire surface, the ridgelines (CL) including a main body portion (CL0) and a first extending portion (CL1) and a second extending portion (CL2) that extend in different directions from the main body portion (CL0) in plan view, wherein the first extending portion (CL1) of a ridge and the second extending portion (CL2) of an adjacent ridge at least partially overlap each other when viewed from a direction along the tire surface and the direction along the main body portion (CL0) of the ridgeline (CL), a height (H) of the ridges is from 0.2 mm to 0.5 mm, and ridges adjacent to each other are arranged at a constant pitch (P) of from 0.15 mm to 0.35 mm, and the first extending portion (CL1) of a ridge and the second extending portion (CL2) of an adjacent ridge at least partially overlap each other when viewed from the direction along the tire surface and the direction orthogonal to the main body portion (CL0) of the ridgeline (CL), characterized in that the first extending portion (CL1) and the second extending portion (CL2) each have an L-letter shape having bending points (B1, B2) and extend parallel to the main body portion (CL0) and in an opposite direction to each other from the bending points (B1, B2) to tips (T1, T2). a pattern portion , in which a plurality of ridges having ridgelines (CL) are arranged adjacent to each other, on a tire surface, the ridgelines (CL) including a main body portion (CL0) and a first extending portion (CL1) and a second extending portion (CL2) that extend in different directions from the main body portion (CL0) in plan view, wherein the first extending portion (CL1) of a ridge and the second extending portion (CL2) of an adjacent ridge at least partially overlap each other when viewed from a direction along the tire surface and the direction along the main body portion (CL0) of the ridgeline (CL), a height (H) of the ridges is from 0.2 mm to 0.5 mm, and ridges adjacent to each other are arranged at a constant pitch (P) of from 0.15 mm to 0.35 mm, and the first extending portion (CL1) of a ridge and the second extending portion (CL2) of an adjacent ridge at least partially overlap each other when viewed from the direction along the tire surface and the direction orthogonal to the main body portion (CL0) of the ridgeline (CL), characterized in that the first extending portion (CL1) and the second extending portion (CL2) each have an L-letter shape having bending points (B1, B2) and extend parallel to the main body portion (CL0) and in an opposite direction to each other from the bending points (B1, B2) to tips (T1, T2).
A gas turbine engine component comprising: a wall having opposing first and second wall surfaces and defining a cooling hole , extending from an inlet located at the first wall surface to an outlet located at the second wall surface ; and having a diffusing section in communication with the inlet and extending to the outlet , wherein the diffusing section includes a leading edge formed at an upstream end the outlet; , located upstream of the cooling hole along the second wall surface , and a trailing edge formed at a downstream end of the outlet , located downstream of the cooling hole along the second wall surface , opposite the upstream end , and a plurality of crenellation features located along the trailing edge , wherein each crenellation feature includes a crenellation body that projects from the trailing edge and generally towards the leading edge , and characterised in that each crenellation feature abuts at least one adjacent crenellation feature . a wall having opposing first and second wall surfaces and defining a cooling hole , extending from an inlet located at the first wall surface to an outlet located at the second wall surface ; and having a diffusing section in communication with the inlet and extending to the outlet , wherein the diffusing section includes a leading edge formed at an upstream end the outlet; , located upstream of the cooling hole along the second wall surface , and a trailing edge formed at a downstream end of the outlet , located downstream of the cooling hole along the second wall surface , opposite the upstream end , and a plurality of crenellation features located along the trailing edge , wherein each crenellation feature includes a crenellation body that projects from the trailing edge and generally towards the leading edge , and characterised in that each crenellation feature abuts at least one adjacent crenellation feature .
Apparatus for manufacturing pressure cast components with a pressure casting mould and a suction-removal apparatus which is provided for controlled evacuation of a mould cavity and which consists at least of a vacuum unit and of at least one suction line which connects the pressure casting mould, wherein the suction line terminates at a mould vacuum valve in the mould cavity, wherein the apparatus is connected to a central control system , and there is inserted in the at least one suction line a filter module which contains at least one filter, a moisture sensor and a pressure sensor, wherein the filter module is installed in such a manner that the connection piece between filter module and mould vacuum valve, a line , is shorter than a suction-removal line between filter module and vacuum pump, characterized in that the filter module contains a filter insert and at least one filter housing consisting of a base and a cover , wherein the base and the cover are tightly connected to each other by means of at least two knurled screws and form a structural space for the filter insert .