mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling device comprising: a substrate assembly comprising: a ceramic layer comprising a first outer planar surface and a second inner planar surface parallel to the first planar surface ; a metal layer bonded to the first planar surface ; a channel layer bonded to the second planar surface ; and a manifold layer bonded to a surface of the channel layer opposite the second planar surface , the ceramic, metal, channel, and manifold layers configured together as a single unitary substrate ; and a separate plenum housing that is separate and bonded to the substrate assembly and configured to provide manifold layer inlet and outlet ports , , wherein the plenum housing comprises a castable metal or machinable ceramic, or machinable glass-ceramic structure. a ceramic layer comprising a first outer planar surface and a second inner planar surface parallel to the first planar surface ; a metal layer bonded to the first planar surface ; a channel layer bonded to the second planar surface ; and a manifold layer bonded to a surface of the channel layer opposite the second planar surface , the ceramic, metal, channel, and manifold layers configured together as a single unitary substrate ; and a separate plenum housing that is separate and bonded to the substrate assembly and configured to provide manifold layer inlet and outlet ports , , wherein the plenum housing comprises a castable metal or machinable ceramic, or machinable glass-ceramic structure.
A method for producing blow-moulded containers , which are sterile at least in some areas, in the case of which a preform made of a thermoplastic material is first heated in a heating means on a transport path through a blow-moulding machine, and is then supplied with a pressurized fluid in a blow-moulding means , and in the case of which the preform is guided at least over a subarea of its transport path along a channel , which conducts a sterile gas, wherein the transport path of the preform out of the channel is supplied with the sterile gas in order to produce a sterile gas corridor, which is formed outside of the channel and in which at least the opening region of the preform is guided, wherein the channel extends at least from the heating means to the blow-moulding means , characterised in that several radiation sources , which emit sterilising radiation onto the channel and/or onto the sterile gas corridor, which is formed outside of the channel, are arranged along the channel and so as to be located one behind the other in the transport direction, wherein in particular several radiation sources are arranged at the channel so as to be located one behind the other, and are oriented toward the sterile gas corridor, which is formed outside of the channel, and/or wherein in particular at least some of the radiation sources are oriented toward the opening region of the preforms .
A surgical robotic component comprising an articulated terminal portion, the terminal portion comprising: a distal segment having an attachment connected thereto; an intermediate segment ; a basal segment whereby the terminal portion is attached to the remainder of the surgical robotic component ; a first articulation between the distal segment and the intermediate segment, the first articulation permitting relative rotation of the distal segment and the intermediate segment about a first axis ; a second articulation between the intermediate segment and the basal segment , the second articulation permitting relative rotation of the intermediate segment and the basal segment about a second axis and characterized in that the intermediate segment comprises: a third articulation permitting relative rotation of the distal segment and the basal segment about third and fourth axes; a first torque sensor (S 2 ) for sensing torque about the third axis ; and a second torque sensor (S 1 ) for sensing torque about the fourth axis ; and the first, second and third articulations are arranged such that in a straight configuration of the terminal portion: the first and second axes are collinear; the third and fourth axes are transverse to the first axis ; the third and fourth axes are transverse to each other; and the third and fourth axes intersect each other. a distal segment having an attachment connected thereto; an intermediate segment ; a basal segment whereby the terminal portion is attached to the remainder of the surgical robotic component ; a first articulation between the distal segment and the intermediate segment, the first articulation permitting relative rotation of the distal segment and the intermediate segment about a first axis ; a second articulation between the intermediate segment and the basal segment , the second articulation permitting relative rotation of the intermediate segment and the basal segment about a second axis and characterized in that the intermediate segment comprises: a third articulation permitting relative rotation of the distal segment and the basal segment about third and fourth axes; a first torque sensor (S 2 ) for sensing torque about the third axis ; and a second torque sensor (S 1 ) for sensing torque about the fourth axis ; and a third articulation permitting relative rotation of the distal segment and the basal segment about third and fourth axes; a first torque sensor (S 2 ) for sensing torque about the third axis ; and a second torque sensor (S 1 ) for sensing torque about the fourth axis ; and the first, second and third articulations are arranged such that in a straight configuration of the terminal portion: the first and second axes are collinear; the third and fourth axes are transverse to the first axis ; the third and fourth axes are transverse to each other; and the third and fourth axes intersect each other. the first and second axes are collinear; the third and fourth axes are transverse to the first axis ; the third and fourth axes are transverse to each other; and the third and fourth axes intersect each other.
Adapter for placing on a console of a processing machine for processing workpieces which preferably consist at least in sections of wood, wood-containing material, composite material or plastic, comprising a main body and a connection interface on the main body by means of which the adapter can be fixed to the console , a coupling which is configured for the connection of a suction and/or pressure hose, and a flange with a flange opening which, passing through the main body , is in pressure-tight line connection with the coupling and which is configured to be brought into a pressure-tight line connection with an output of an output piece of the console, characterised in that the connection interface can be fixed to the console in a force-locking manner by means of a clamp fastening .
A method for filtering in video decoding, comprising: determining, by a processor, a first combination from reconstructed samples of a first color component within a filter support region; determining, by the processor and based on a mapping that associates offset values with combinations of possible reconstructed sample values, a first offset value that is associated with the first combination; and applying, by the processor, the first offset value on a to-be filtered sample of a second color component in the filter support region to determine a filtered sample of the second color component, characterized by calculating differences of surrounding reconstructed samples of the reconstructed samples to a collocated sample within the reconstructed samples of the first color component, the collocated sample being located at a same position as the to-be filtered sample of the second color component; and quantizing the differences based on a quantization step size to determine the first combination. determining, by a processor, a first combination from reconstructed samples of a first color component within a filter support region; determining, by the processor and based on a mapping that associates offset values with combinations of possible reconstructed sample values, a first offset value that is associated with the first combination; and applying, by the processor, the first offset value on a to-be filtered sample of a second color component in the filter support region to determine a filtered sample of the second color component, characterized by calculating differences of surrounding reconstructed samples of the reconstructed samples to a collocated sample within the reconstructed samples of the first color component, the collocated sample being located at a same position as the to-be filtered sample of the second color component; and quantizing the differences based on a quantization step size to determine the first combination.
Packaging material comprising: a) a core layer of polymeric material including at least one active substance having antimicrobial and/or antifungal activity dispersed in the polymer matrix, b) a coating applied to a side of said core layer obtained from a lacquer or a polymeric paint including fillers of a phyllosilicate or hydrotalcite, c) a coating for the release of an active antimicrobial or antifungal agent comprising encapsulated ethanol and a polymeric component selected from chitosan grafted with polyethylene glycol or cyclodextrin, a mixture of chitosan and polyethylene glycol and a polymer or mixture of polymers from a printable paint having a polymeric matrix selected from polyethylene, polyvinylacetate or polyacrylate, applied to the other side of the core layer. a) a core layer of polymeric material including at least one active substance having antimicrobial and/or antifungal activity dispersed in the polymer matrix, b) a coating applied to a side of said core layer obtained from a lacquer or a polymeric paint including fillers of a phyllosilicate or hydrotalcite, c) a coating for the release of an active antimicrobial or antifungal agent comprising encapsulated ethanol and a polymeric component selected from chitosan grafted with polyethylene glycol or cyclodextrin, a mixture of chitosan and polyethylene glycol and a polymer or mixture of polymers from a printable paint having a polymeric matrix selected from polyethylene, polyvinylacetate or polyacrylate, applied to the other side of the core layer.
A micro-electrical-mechanical system (MEMS) transducer comprising: a layer of dielectric material ; characterised by an electrode formed in the layer of dielectric material , such that the layer of dielectric material comprises a first dielectric layer and a second dielectric layer provided on opposite sides of the electrode; wherein a region of the layer of the dielectric material is adapted such that it comprises: a first impedance in a first plane that lies substantially orthogonal to the plane of the first layer, the first plane comprising a plane that lies substantially axially between a surface of the electrode and a surface of a second electrode forming part of a capacitive transducer; and a second impedance in a second plane, the second plane comprising a plane that lies substantially orthogonal to the first plane; wherein the first impedance is reduced compared to the second impedance; and wherein, when biased during use, the region of dielectric material operates in a tunnelling mode of operation, to provide a leakage path which, in use, removes unwanted charge from the layer of dielectric material . a layer of dielectric material ; characterised by an electrode formed in the layer of dielectric material , such that the layer of dielectric material comprises a first dielectric layer and a second dielectric layer provided on opposite sides of the electrode; wherein a region of the layer of the dielectric material is adapted such that it comprises: a first impedance in a first plane that lies substantially orthogonal to the plane of the first layer, the first plane comprising a plane that lies substantially axially between a surface of the electrode and a surface of a second electrode forming part of a capacitive transducer; and a second impedance in a second plane, the second plane comprising a plane that lies substantially orthogonal to the first plane; wherein the first impedance is reduced compared to the second impedance; and wherein, when biased during use, the region of dielectric material operates in a tunnelling mode of operation, to provide a leakage path which, in use, removes unwanted charge from the layer of dielectric material . a first impedance in a first plane that lies substantially orthogonal to the plane of the first layer, the first plane comprising a plane that lies substantially axially between a surface of the electrode and a surface of a second electrode forming part of a capacitive transducer; and a second impedance in a second plane, the second plane comprising a plane that lies substantially orthogonal to the first plane; wherein the first impedance is reduced compared to the second impedance; and wherein, when biased during use, the region of dielectric material operates in a tunnelling mode of operation, to provide a leakage path which, in use, removes unwanted charge from the layer of dielectric material .
Wire cloth comprising a woven structure defined by: - a weft comprising a plurality of first thread-like elements made of metallic material; and - a warp woven with said weft and comprising a plurality of second thread-like elements made at least partially of metallic material; said structure further comprising at least one lateral area parallel to said warp approached to a respective edge and developing as a strip along the whole longitudinal development of the cloth; the lateral area having deformation means for occluding channels defined between the first thread-like elements at said lateral zone ; characterized in that said deformation means comprise a band , made of a material resistant to high temperatures and deformable if subjected to crushing to occlude said channels. - a weft comprising a plurality of first thread-like elements made of metallic material; and - a warp woven with said weft and comprising a plurality of second thread-like elements made at least partially of metallic material; said structure further comprising at least one lateral area parallel to said warp approached to a respective edge and developing as a strip along the whole longitudinal development of the cloth; the lateral area having deformation means for occluding channels defined between the first thread-like elements at said lateral zone ; characterized in that said deformation means comprise a band , made of a material resistant to high temperatures and deformable if subjected to crushing to occlude said channels.
A method for additive manufacturing, comprising: positioning a build sheet on a print substrate of a printer; printing an object on the build sheet ; and detaching the object from the build sheet after completion of said printing, wherein the build sheet includes: a build surface layer at least partially made of a textile and configured to at least partially adhere to the object during said printing; and a seal layer attached to the build surface layer and proximal to the print substrate , the seal layer being adapted for sealing a vacuum, wherein the build surface layer is configured to be removable from the object after printing, and wherein the build sheet is configured to be reusable. positioning a build sheet on a print substrate of a printer; printing an object on the build sheet ; and detaching the object from the build sheet after completion of said printing, wherein the build sheet includes: a build surface layer at least partially made of a textile and configured to at least partially adhere to the object during said printing; and a seal layer attached to the build surface layer and proximal to the print substrate , the seal layer being adapted for sealing a vacuum, wherein the build surface layer is configured to be removable from the object after printing, and a build surface layer at least partially made of a textile and configured to at least partially adhere to the object during said printing; and a seal layer attached to the build surface layer and proximal to the print substrate , the seal layer being adapted for sealing a vacuum, wherein the build surface layer is configured to be removable from the object after printing, and wherein the build sheet is configured to be reusable.
An engine for a portable working machine comprising: a crankshaft to which the working machine is coupled; an air-cooling fan coupled to one end side of the crankshaft ; a fan casing enclosing the air-cooling fan ; a bottom cover located in a bottom surface side of the engine and connected to the fan casing , an oil pan fixed to a bottom of a crankcase accommodating the crankshaft , a first air suction port , and a second air suction port , wherein the first air suction port and guide parts are formed in a part of the bottom cover near the air-cooling fan , the second air suction port being formed in another part of the bottom cover which is not near the air-cooling fan , the first and second air suction ports sucking in air supplied from the air-cooling fan , and the guide parts extending from the first air suction port to the impeller blades of the air-cooling fan , wherein a shielding structure is provided between the first air suction port and the air cooling fan and also between the second air suction port and the air cooling fan , respectively, to shield the air-cooling fan from air coming in from the first and second air suction ports , and wherein the oil pan serves as the shielding structure for the second air suction port . a crankshaft to which the working machine is coupled; an air-cooling fan coupled to one end side of the crankshaft ; a fan casing enclosing the air-cooling fan ; a bottom cover located in a bottom surface side of the engine and connected to the fan casing , an oil pan fixed to a bottom of a crankcase accommodating the crankshaft , a first air suction port , and a second air suction port , wherein the first air suction port and guide parts are formed in a part of the bottom cover near the air-cooling fan , the second air suction port being formed in another part of the bottom cover which is not near the air-cooling fan , the first and second air suction ports sucking in air supplied from the air-cooling fan , and the guide parts extending from the first air suction port to the impeller blades of the air-cooling fan , wherein a shielding structure is provided between the first air suction port and the air cooling fan and also between the second air suction port and the air cooling fan , respectively, to shield the air-cooling fan from air coming in from the first and second air suction ports , and wherein the oil pan serves as the shielding structure for the second air suction port .
An electronic apparatus comprising: a signal receiver configured to receive a first wireless signal; a signal transmitter configured to output a second wireless signal; and a processor configured to identify an external apparatus targeted to operate based on an input key, as the first wireless signal corresponding to the input key is repetitively received through the signal receiver, and control the signal transmitter to repetitively output the second wireless signal, by which the identified external apparatus recognizes the input key, based on the reception of the first wireless signal, each of the first wireless signal and the second wireless signal alternating between a signal section and an idle section based on a given period, and the processor controlling the signal transmitter to output the second wireless signal in the idle section of the first wireless signal. a signal receiver configured to receive a first wireless signal; a signal transmitter configured to output a second wireless signal; and a processor configured to identify an external apparatus targeted to operate based on an input key, as the first wireless signal corresponding to the input key is repetitively received through the signal receiver, and control the signal transmitter to repetitively output the second wireless signal, by which the identified external apparatus recognizes the input key, based on the reception of the first wireless signal, each of the first wireless signal and the second wireless signal alternating between a signal section and an idle section based on a given period, and the processor controlling the signal transmitter to output the second wireless signal in the idle section of the first wireless signal.
A method of preparing a polymeric material, comprising the steps of: combining an alcohol monomer and an aqueous liquid in a vessel, wherein the step of combining the alcohol monomer and the aqueous liquid takes place at room temperature in the vessel or includes heating of the alcohol monomer and the aqueous liquid to a temperature of from 50 to 200 °C for a time sufficient to dissolve or homogenously disperse the alcohol monomer; adding an acid monomer to the vessel; removing water from the vessel; and producing the polymeric material from the vessel, wherein the polymeric material comprises a polyester of the alcohol monomer and the acid monomer. combining an alcohol monomer and an aqueous liquid in a vessel, wherein the step of combining the alcohol monomer and the aqueous liquid takes place at room temperature in the vessel or includes heating of the alcohol monomer and the aqueous liquid to a temperature of from 50 to 200 °C for a time sufficient to dissolve or homogenously disperse the alcohol monomer; adding an acid monomer to the vessel; removing water from the vessel; and producing the polymeric material from the vessel, wherein the polymeric material comprises a polyester of the alcohol monomer and the acid monomer.
A SiC crucible having an oxygen content of 100 ppm or less.
Home automation system comprising, - at least two sensors (A-M), - at least one evaluation device , - wherein the sensors are arranged to detect from a received signal of a transmitter a respective received field strength together with a transmitter identifier and a sensor identifier as reception information , - wherein the sensors (A-M) are arranged to transmit the reception information to the evaluation device and - the evaluation device is arranged to evaluate the reception information , to generate a current signature from the reception information and to generate a control telegram for an actuator of the home automation system as a function of the local area (2a-f) assigned to the transmitter of the current signature. - at least two sensors (A-M), - at least one evaluation device , - wherein the sensors are arranged to detect from a received signal of a transmitter a respective received field strength together with a transmitter identifier and a sensor identifier as reception information , - wherein the sensors (A-M) are arranged to transmit the reception information to the evaluation device and - the evaluation device is arranged to evaluate the reception information , to generate a current signature from the reception information and to generate a control telegram for an actuator of the home automation system as a function of the local area (2a-f) assigned to the transmitter of the current signature.