mhurhangee/ep-ind-claims huggingface dataset:
An electronic device for a vehicle, comprising: a power supply configured to supply power; an interface configured to receive high definition, HD, map data (351-355; 361-371) of a specified region from a server through a communication device; and at least one processor configured to continuously generate electronic horizon data of the specified region based on the HD map data (351-355; 361-371) in a state in which the power is received, and to set a light irradiation region of a head lamp based on the electronic horizon data, characterised in that the electronic horizon data comprises dynamic data comprising information on a hidden object defined as an object that is not sensed by a sensor, and wherein the processor is configured to set a point at which the hidden object is located to the light irradiation region. a power supply configured to supply power; an interface configured to receive high definition, HD, map data (351-355; 361-371) of a specified region from a server through a communication device; and at least one processor configured to continuously generate electronic horizon data of the specified region based on the HD map data (351-355; 361-371) in a state in which the power is received, and to set a light irradiation region of a head lamp based on the electronic horizon data, characterised in that the electronic horizon data comprises dynamic data comprising information on a hidden object defined as an object that is not sensed by a sensor, and wherein the processor is configured to set a point at which the hidden object is located to the light irradiation region.
A method for creating a tread for a tire, the tire defining a circumferential direction, comprising: cutting multiple, discrete sections out of a sheet having a thickness comprising an uncured rubber, wherein each section has a pair of opposing faces (130a, 130b) separated by thickness; creating a tread layer by joining the sections together along the circumferential direction so that the faces of one section are joined with the opposing faces of adjacent sections; and applying the tread layer to a tire intermediate after the step of creating so as to form the tire. cutting multiple, discrete sections out of a sheet having a thickness comprising an uncured rubber, wherein each section has a pair of opposing faces (130a, 130b) separated by thickness; creating a tread layer by joining the sections together along the circumferential direction so that the faces of one section are joined with the opposing faces of adjacent sections; and applying the tread layer to a tire intermediate after the step of creating so as to form the tire.
A carbon catalyst, which is obtained by carbonizing a raw material including an organic substance containing a nitrogen atom and metals at 300°C or more, the catalyst comprising iron and/or cobalt, and copper as the metals, wherein the catalyst has a crystallinity of 41.0% or less, which is determined by X-ray diffractometry, and an oxygen reduction-starting potential of 0.774 V (vs. NHE) or more, wherein a ratio of a content of copper to a total of a content of iron, cobalt, and copper is 10 to 95% by mass.
Apparatus for transferring heat energy from a waste-liquid, comprising: at least one heat exchange element for transferring heat energy from waste-liquid in a first container to a first target fluid; at least one heat pump element; characterized in that the at least one heat pump element is suitable for transferring heat energy from waste-liquid transferred from the first container to a further container; the apparatus further comprises: at least one selectively operable exit-valve element for selectively providing at least one fluid communication path for allowing waste-liquid to exit from the further container; and at least one controller element for selectively operating the heat pump element to transfer heat energy from waste-liquid in the further container to a further target fluid and/or for selectively operating the at least one selectively operable exit-valve element. at least one heat exchange element for transferring heat energy from waste-liquid in a first container to a first target fluid; at least one heat pump element; characterized in that the at least one heat pump element is suitable for transferring heat energy from waste-liquid transferred from the first container to a further container; the apparatus further comprises: at least one selectively operable exit-valve element for selectively providing at least one fluid communication path for allowing waste-liquid to exit from the further container; and at least one controller element for selectively operating the heat pump element to transfer heat energy from waste-liquid in the further container to a further target fluid and/or for selectively operating the at least one selectively operable exit-valve element.
A laser handpiece system, comprising a laser; a fluid source; and a fiber tip fluid output device accommodating a fiber optic tip, wherein the laser handpiece system is configured to place an engineered and controllable atomized distribution of fluid particles into an interaction for absorption of electromagnetic radiation from the fiber optic tip and for subsequent expansion to impart mechanical cutting forces onto a target or treatment surface, the fiber tip fluid output device comprising a generally cylindrical body having an outer surface, a proximal end, a distal end, and a lumen extending between the proximal end and the distal end, with the lumen being sized and shaped to accommodate the fiber tip therethrough so that the fiber tip extends through the lumen from the proximal end to the distal end of the generally cylindrical body, characterized in that the fiber optic tip is configured as a shaped fiber optic tip comprising a side-firing output end, with the shaped fiber optic tip being polished into either a symmetric, conical side-firing output end or a truncated-cone or truncated-bevel distal end that provides also end-firing components.
A process for release of hydrogen by dehydrogenating hydrogenated liquid organic compounds using a catalyst prepared by wet chemistry method, having general formula M-M'/support wherein metal M is Ag and metal M' one metal selected from Pt, Pd, Rh, wherein the quantity of M is from 2 to 20 wt% of the support weight and the quantity of M' is from 0.1 to 3 wt % of the support weight and said metals dispersed on an activated carbon support,; the process comprising the steps of: a) feeding hydrogenated liquid organic compound through a flow pump and a controller to a fixed bed reactor having the catalyst placed therein the reactor, b) reacting hydrogenated liquid organic compounds with the catalyst and heating the temperature of the catalyst in the reactor in the range of 120 to 400 °C to obtain products, c) separating the products with a condenser by cooling to a temeprature in the range of 2-50°C subsequent to removal of products from reactor by introducing a carrier gas in the reactor through a flowmeter to obtain liquid and gaseous hydrogen product, wherein the obtained liquid is stored in storage d) passing the gaseous hydrogen product as obtained in step (c) through an entrainment separator to release hydrogen e) passing the hydrogen to a compressor. a) feeding hydrogenated liquid organic compound through a flow pump and a controller to a fixed bed reactor having the catalyst placed therein the reactor, b) reacting hydrogenated liquid organic compounds with the catalyst and heating the temperature of the catalyst in the reactor in the range of 120 to 400 °C to obtain products, c) separating the products with a condenser by cooling to a temeprature in the range of 2-50°C subsequent to removal of products from reactor by introducing a carrier gas in the reactor through a flowmeter to obtain liquid and gaseous hydrogen product, wherein the obtained liquid is stored in storage d) passing the gaseous hydrogen product as obtained in step (c) through an entrainment separator to release hydrogen e) passing the hydrogen to a compressor.
A method for feeding back channel status information, comprising: a terminal in long term evolution-advanced, LTE-A, quantizing the channel status information by using a codebook, and feeding back the channel status information through a physical uplink control channel; wherein, code words contained in the used codebook C PUCCH ( r) with a rank being r are a subset of code words contained in the codebook C PUSCH ( r) with a rank being r, C PUSCH ( r) being an overall codebook defined in the LTE-A; wherein, the C PUCCH ( r) is a single codebook equivalent to dual codebooks for reporting precoding matrix indicator, PMI, information; and the C PUSCH ( r) is a single codebook equivalent to dual codebooks for reporting PMI information; and the single codebook equivalent to the dual codebooks means that an actually used codebook is an actually defined single codebook, however, 2 pre-coding matrix identifiers are required to determine the code words of a codebook therein for an established r, characterized in that when r =1, all code words of the C PUSCH ( r) meet the model u i α k u i, the u i is one 4-dimension column vector, i =1,2,3... m, m is a positive integer, and k =1,2,3,4, and α k = e jπ (k-1)/2; for every u i, the C PUSCH ( r) contains 4 code words u i u i u i ju i u i − u i u i − ju i corresponding to the α k = e jπ (k-1)/2 in which k =1,2,3,4, then: the code words that form the C PUCCH ( r) are all or part of code words which are extracted from the C PUSCH ( r) and meet the model u i α k u i, with the corresponding α k being {1,-1}; or, the code words that form the C PUCCH ( r) are all or part of code words which are extracted from the C PUSCH ( r) and meet model u i α k u i, with the corresponding α k being { j,- j}; or, half of the code words that form the C PUCCH ( r) are part of code words which are extracted from the C PUSCH ( r) and meet the model u i α k u i, with the corresponding α k being {1,-1}, and another half of the code words are part of code words which are extracted from the C PUSCH ( r) and meet the model u i α k u i, with the corresponding α k being { j,- j}; or, 1/4 of the code words that form the C PUCCH ( r) are part of code words which are extracted from the C PUSCH ( r) and meet the model u i α k u i, with the corresponding α k being 1, 1/4 of the code words are part of code words which are extracted from the C PUSCH ( r) and meet the model u i α k u i, with the corresponding α k being -1, 1/4 of the code words are part of code words which are extracted from the C PUSCH ( r) and meet the model u i α k u i, with the corresponding α k being j, and 1/4 of the code words are part of code words which are extracted from the C PUSCH ( r) and meet the model u i α k u i, with the corresponding α k being -j.
Receiving element for a dental implant having a first plate and a second plate which extend perpendicularly to the center axis of the receiving element and are adapted to releasably fix a dental implant in a stable position, the plates (3, 6) being separated by an open area, with the open area extending from a respective end of the plates (3, 6) substantially to the center axis of the receiving element, with the first plate being elastic so as to ensure a clamping accommodation of a dental implant in an opening of the first plate, and with the second plate having a stopping region adapted for stabilizing the position of an inserted dental implant, the stopping region substantially having a U-shape, characterized in that the open area is jaw-shaped and in that its width decreases from the respective ends of the plates (3, 6).
A method for a user equipment, UE, to access a wireless network, comprising calculating a relative speed V r between the UE and each of a plurality of access points; and the method is characterized by comprising: selecting an access point to access, wherein the relative speed V r between the UE and the access point is smaller than or equal to a threshold V 0; and if the V r between the UE and each access point is greater than the threshold V 0, selecting, by the UE, an access point having the minimum V r to access.
A method for confirming the position of at least one variably positionable gas turbine engine vane (31, 35, 48) comprising the steps of: mounting at least one camera (60, 62) on a moving component disposed on an exterior of an at least partially assembled turbine engine; the moving component configured to move relative to an axis of the at least partially assembled turbine engine; and generating visual images with the at least one camera (60, 62) corresponding to a position of a gas turbine engine vane actuation structure (54a, 54b) positioned on the exterior of the at least partially assembled turbine engine.
An apparatus for printing on the surfaces of containers, with at least one printing station, which is assigned at least two print heads for printing on the containers with a plurality of and/or with different printing colours, with at least one handling device for positioning the containers during printing approximately horizontally, characterised in that the print heads of each printing station are arranged one above the other, and in that the apparatus comprises at least one handling device (46, 48) for the variable positioning of the containers at different levels (N1 - Nx) wherein the variably adjustable levels (N1 - Nx) respectively correspond to print heads of the printing station arranged at different heights, and in that the handling device for the variable positioning of the containers at different vertical levels (N1 - Nx) is a vertical conveyor device.
A non-explosive tension release actuation device, comprising: an initiator system; a housing base attached to the initiator system; a carriage assembly positioned at least partially within the housing base, the carriage assembly comprising a carriage unit, a first jaw, a second jaw, a first rocker arm, and a second rocker arm, wherein the first jaw is positioned on a first side of the carriage unit, wherein the second jaw is positioned on a second side of the carriage unit opposite the first side of the carriage unit, and wherein the first rocker arm and the second rocker arm are attached to the carriage unit and to the initiator system; and a load attachment unit wherein the load attachment unit rests on the first jaw and on the second jaw, and wherein the first jaw and the second jaw are configured to swing away from the load attachment unit in response to a downward motion of the carriage unit relative to the housing base, wherein the initiator system is configured to initiate the downward motion of the carriage unit to release the load attachment unit from the carriage assembly, characterized in that the load attachment unit is positioned at least partially within the carriage unit and between the first jaw and the second jaw. an initiator system; a housing base attached to the initiator system; a carriage assembly positioned at least partially within the housing base, the carriage assembly comprising a carriage unit, a first jaw, a second jaw, a first rocker arm, and a second rocker arm, wherein the first jaw is positioned on a first side of the carriage unit, wherein the second jaw is positioned on a second side of the carriage unit opposite the first side of the carriage unit, and wherein the first rocker arm and the second rocker arm are attached to the carriage unit and to the initiator system; and a load attachment unit wherein the load attachment unit rests on the first jaw and on the second jaw, and wherein the first jaw and the second jaw are configured to swing away from the load attachment unit in response to a downward motion of the carriage unit relative to the housing base, wherein the initiator system is configured to initiate the downward motion of the carriage unit to release the load attachment unit from the carriage assembly,
Impregnate with an impregnated paper layer with antistatic properties for use in laminates or for coating wood-based panels, wherein the resin used for impregnating and/or coating the paper comprises - carbon-based particles, in particular carbon nanotubes or graphene, wherein the surface of the carbon-based particles is modified with - at least one compound having the general formula (la) R 1 a SiX (4-a) (Ia), where - X is methoxy, ethoxy, n-propoxy or i-propoxy, - R 1 is an organic moiety selected from the group consisting of methyl, ethyl, propyl or vinyl, - wherein R 1 has at least one functional group Q 1 selected from a group consisting of an acrylic, acryloxy, methacrylic, methacryloxy, and epoxy group, - a = 1 or 2, and - at least one further compound of the general formula R 3 c SiX (4-c), where - X has the above meaning, - R 3 is a non-hydrolysable organic moiety R 3 selected from the group consisting of C1-C10 alkyl, C6-C10 aryl, and - c = 1, 2 or 3, and - SiO 2, Al O 23, ZrO 2, TiO 2 -particles as inorganic particles. - carbon-based particles, in particular carbon nanotubes or graphene, wherein the surface of the carbon-based particles is modified with - at least one compound having the general formula (la) R 1 a SiX (4-a) (Ia), where - X is methoxy, ethoxy, n-propoxy or i-propoxy, - R 1 is an organic moiety selected from the group consisting of methyl, ethyl, propyl or vinyl, - wherein R 1 has at least one functional group Q 1 selected from a group consisting of an acrylic, acryloxy, methacrylic, methacryloxy, and epoxy group, - a = 1 or 2, and - X is methoxy, ethoxy, n-propoxy or i-propoxy, - R 1 is an organic moiety selected from the group consisting of methyl, ethyl, propyl or vinyl, - wherein R 1 has at least one functional group Q 1 selected from a group consisting of an acrylic, acryloxy, methacrylic, methacryloxy, and epoxy group, - a = 1 or 2, and - at least one further compound of the general formula R 3 c SiX (4-c), where - X has the above meaning, - R 3 is a non-hydrolysable organic moiety R 3 selected from the group consisting of C1-C10 alkyl, C6-C10 aryl, and - c = 1, 2 or 3, and - X has the above meaning, - R 3 is a non-hydrolysable organic moiety R 3 selected from the group consisting of C1-C10 alkyl, C6-C10 aryl, and - c = 1, 2 or 3, and - SiO 2, Al O 23, ZrO 2, TiO 2 -particles as inorganic particles.
An automated biological-sample-processing system comprising: a pipette, a column of solid-phase material to which nucleic acid binds, a transport apparatus, an air-piston apparatus mounted on the transport apparatus, an adaptor for coupling the pipette to the air-piston apparatus, in which the adaptor is removably engageable with the air-piston apparatus for movement with the transport apparatus during processing of the sample, is couplable to the pipette so that the transport apparatus is controllable to position the pipette and so that the air-piston apparatus is controllable to draw a liquid into the pipette and to expel the liquid from the pipette, and is engageable with the column, in which the adaptor comprises a filter for preventing liquid or aerosol transfer between the pipette or column and the air-piston apparatus, and a programmable controller connected to the transport apparatus and to the air-piston apparatus, wherein the programmable controller is programmed to control the operation of the air-piston apparatus and the transport apparatus in accordance with a processing protocol, the processing protocol comprising: coupling the adaptor to the pipette, moving and operating the pipette using the transport apparatus and the air-piston apparatus to dispense a sample into the column of solid phase material, uncoupling the adaptor from the pipette, coupling the adaptor with the column of solid phase material and pushing a sample through the column of solid phase material using the air-piston apparatus.
A method on an electronic device having access to contact information for a number of contacts, the method comprising: receiving (602, 702, 802, 902) through an audio input interface a voice input for initiating a communication; extracting (604, 704, 804, 904) from the voice input a type of communication and at least part of a contact name; determining which contacts from the contact information have the part of the contact name and which have a contact address associated with the type of communication; and outputting (610, 714, 816, 916), to an output interface, a selectable list of all contacts from the contact information which have the part of the contact name and which have a contact address associated with the type of communication, wherein the list does not include contacts from the contact information which have the part of the contact name, but which do not have a contact address associated with the type of communication. receiving (602, 702, 802, 902) through an audio input interface a voice input for initiating a communication; extracting (604, 704, 804, 904) from the voice input a type of communication and at least part of a contact name; determining which contacts from the contact information have the part of the contact name and which have a contact address associated with the type of communication; and outputting (610, 714, 816, 916), to an output interface, a selectable list of all contacts from the contact information which have the part of the contact name and which have a contact address associated with the type of communication, wherein the list does not include contacts from the contact information which have the part of the contact name, but which do not have a contact address associated with the type of communication.
A sulfur-carbon composite comprising: a porous carbon material; a polymer having electrolyte liquid loading capacity; and sulfur; wherein a coating layer is present on at least one of an inner surface of the porous carbon material and an outer surface of the porous carbon material, wherein the coating layer comprises the polymer having electrolyte liquid loading capacity; and wherein the polymer having electrolyte liquid loading capacity is polyurethane. a porous carbon material; a polymer having electrolyte liquid loading capacity; and sulfur; wherein a coating layer is present on at least one of an inner surface of the porous carbon material and an outer surface of the porous carbon material, wherein the coating layer comprises the polymer having electrolyte liquid loading capacity; and wherein the polymer having electrolyte liquid loading capacity is polyurethane.