mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting a distortion of a light pattern defining a code word, the method comprising the steps of: projecting a light pattern by means of a light source, wherein the light pattern referred to a reference plane represents a reference light pattern, wherein the reference light pattern comprises individual light pattern elements arranged at a distance from each other and arranged in a plurality of successive columns in the direction of a first extension axis, wherein the columns each extend in the direction of a second extension axis transverse to the first extension axis and each include at least one of the light pattern elements, wherein the number and/or position of the at least one light pattern element in each column of the reference light pattern is an encoding feature and a sequence of light pattern elements in a predetermined number of successive columns define a code word, and Detection of the light pattern by means of an optical sensor, characterized in that at least a partial number of the light pattern elements of the reference light pattern define at least one predetermined geometric pattern, that the at least one geometric pattern is detected in the detected light pattern, and that a distortion of the detected light pattern with respect to the reference light pattern is determined by comparing the at least one geometric pattern of the detected light pattern with the at least one geometric pattern of the reference light pattern. projecting a light pattern by means of a light source, wherein the light pattern referred to a reference plane represents a reference light pattern, wherein the reference light pattern comprises individual light pattern elements arranged at a distance from each other and arranged in a plurality of successive columns in the direction of a first extension axis, wherein the columns each extend in the direction of a second extension axis transverse to the first extension axis and each include at least one of the light pattern elements, wherein the number and/or position of the at least one light pattern element in each column of the reference light pattern is an encoding feature and a sequence of light pattern elements in a predetermined number of successive columns define a code word, and Detection of the light pattern by means of an optical sensor, characterized in that at least a partial number of the light pattern elements of the reference light pattern define at least one predetermined geometric pattern, that the at least one geometric pattern is detected in the detected light pattern, and that a distortion of the detected light pattern with respect to the reference light pattern is determined by comparing the at least one geometric pattern of the detected light pattern with the at least one geometric pattern of the reference light pattern.
Electrically insulating safety glove, comprising - at least one electrically insulating insulation layer; - at least one electrically conductive outer layer which at least partly covers the insulation layer; - at least one electrical connecting point; - at least one signal device which is electrically connected to the outer layer and each connecting point; wherein the signal device is configured so as to produce a warning signal dependent on a potential difference between the outer layer and at least one of the connecting points, characterised in that the safety glove comprises at least one external electrode which is electrically connected to at least one of the connecting points, the external electrode on the safety glove being suitable for tapping a potential and/or carrying out earthing. - at least one electrically insulating insulation layer; - at least one electrically conductive outer layer which at least partly covers the insulation layer; - at least one electrical connecting point; - at least one signal device which is electrically connected to the outer layer and each connecting point; wherein the signal device is configured so as to produce a warning signal dependent on a potential difference between the outer layer and at least one of the connecting points, characterised in that the safety glove comprises at least one external electrode which is electrically connected to at least one of the connecting points, the external electrode on the safety glove being suitable for tapping a potential and/or carrying out earthing.
A solution comprising at least one multi-functional acrylate, a non-acrylate organic solvent, a fluoro surfactant and an acrylate- and/or methacrylate-functionalised silicone; wherein the solution is cross-linkable, wherein the multi-functional acrylate comprises a multi-functional acrylate compound containing a nitrogen-containing cyclic core having at least two pendant acrylate moieties, and a polyacrylate monomer having an oxy or polyoxy-alkane core.
An siRNA comprising a sense region and an anti-sense region, wherein said sense region and said anti-sense region form a duplex region, and wherein said sense region and said anti-sense region are each no more than 30 continuous nucleotides of the sequence shown in Figure la or Figure lb or a sequence complementary to the sequence thereof, and wherein the siRNA comprises the following sense and anti-sense sequences: 5'-AAG CAC ATG ACC GCC GTG GTG-3' (sense, nucleotides 239-259 in Figure 1A) and 5'-AAC ACC ACG GCG GTC ATG TGC-3' (antisense).
A gas turbine bleed valve comprising: a valve body including an aperture; a resonator in fluid communication with the aperture in the valve body; the bleed valve being characterised in that it further comprises a drain valve in fluid communication with the resonator. a valve body including an aperture; a resonator in fluid communication with the aperture in the valve body; the bleed valve being characterised in that it further comprises a drain valve in fluid communication with the resonator.
A cold plate assembly comprising: a monolithic cold plate which defines a trough located to intersect a fluid path of the monolithic cold plate, wherein said fluid path includes a multiple of parallel passages (28-1a-n), each of said parallel passages defined by a first gun drilled passage which intersects said trough and a second gun drilled passage which opposes said first passage and which intersects said trough, wherein said trough is of a generally toothed configuration with a multiple of open areas, each of said multiple of open areas corresponding with one of said multiple of parallel passages, and with a multiple of trough teeth which separate said multiple of parallel passages, and further comprising a cap which is receivable within said trough, said cap defining a multiple of cap teeth, each of which fits within one of said respective multiple of open areas and each of which defines an orifice which provides fluid communication between said first gun drilled passage and said second gun drilled passage. a monolithic cold plate which defines a trough located to intersect a fluid path of the monolithic cold plate, wherein said fluid path includes a multiple of parallel passages (28-1a-n), each of said parallel passages defined by a first gun drilled passage which intersects said trough and a second gun drilled passage which opposes said first passage and which intersects said trough, wherein said trough is of a generally toothed configuration with a multiple of open areas, each of said multiple of open areas corresponding with one of said multiple of parallel passages, and with a multiple of trough teeth which separate said multiple of parallel passages, and further comprising a cap which is receivable within said trough, said cap defining a multiple of cap teeth, each of which fits within one of said respective multiple of open areas and each of which defines an orifice which provides fluid communication between said first gun drilled passage and said second gun drilled passage.
A method for controlling an anti-yaw damper, comprising: obtaining lateral acceleration signals of a frame and performing a first preprocessing on the lateral acceleration signals; obtaining a pressure difference between two chambers of a piston of an anti-yaw damper and performing a second preprocessing on the pressure difference; obtaining an MPPT algorithm objective function value J(t) at the current moment t according to first preprocessing result and second preprocessing result obtained at the current moment and an MPPT algorithm objective function value J(t-1) at the previous moment (t-1) according to first preprocessing result and second preprocessing result obtained at the previous moment, and comparing the MPPT algorithm objective function value at the current moment with the MPPT algorithm objective function value at the previous moment; and controlling the adjustment direction of an electromagnetic proportional valve of the anti-yaw damper according to the comparison result; wherein J t = w 1 t * La 2 t + w2 t * F 2 t, and J t − 1 = w 1 t − 1 * La 2 t − 1 + w2 t − 1 * F 2 t − 1, wherein, w1 represents a weight of a lateral acceleration of a frame, w2 represents a weight of a damping force, La represents a lateral acceleration value subjected to a moving average, and F represents the damping force. obtaining lateral acceleration signals of a frame and performing a first preprocessing on the lateral acceleration signals; obtaining a pressure difference between two chambers of a piston of an anti-yaw damper and performing a second preprocessing on the pressure difference; obtaining an MPPT algorithm objective function value J(t) at the current moment t according to first preprocessing result and second preprocessing result obtained at the current moment and an MPPT algorithm objective function value J(t-1) at the previous moment (t-1) according to first preprocessing result and second preprocessing result obtained at the previous moment, and comparing the MPPT algorithm objective function value at the current moment with the MPPT algorithm objective function value at the previous moment; and controlling the adjustment direction of an electromagnetic proportional valve of the anti-yaw damper according to the comparison result; wherein J t = w 1 t * La 2 t + w2 t * F 2 t, and J t − 1 = w 1 t − 1 * La 2 t − 1 + w2 t − 1 * F 2 t − 1, wherein, w1 represents a weight of a lateral acceleration of a frame, w2 represents a weight of a damping force, La represents a lateral acceleration value subjected to a moving average, and F represents the damping force.
A method for increasing the security in a distributed real-time system, comprising processor nodes, in particular a plurality of processor nodes (121 to 124) and distributor units (130, 131), at least one incremental scheduler being able to dynamically plan deterministic time-controlled channels between the processor nodes, characterized in that at least one trusted certification and monitoring authority, CMA, stipulates the maximum share of bandwidth of each distributor unit (130, 131) which the at least one scheduler is allowed to plan, and these stipulations are communicated to the distributor units and the schedulers by the CMA with the aid of messages, and a distributor unit that receives a time schedule from a scheduler which takes up more bandwidth than this maximum share discards this time schedule.
A mobile computing device for accessing data, the mobile computing device being arranged to: determine a first security factor on the basis of an environmental condition related to an environment of the mobile computing device and detected at the mobile computing device; determine a second security factor on the basis of an environmental condition related to said environment of the mobile computing device and detected at another, different, mobile computing device; and initiate, at the mobile computing device, an action to protect said data on the basis of the first security factor and the second security factor, wherein said action is initiated in accordance with a security policy specifying the first and second security factors and said action, and the mobile computing device is arranged to: determine that it does not have a sensor capable of sensing an environmental condition related to the environment of the mobile computing device and corresponding to a security factor specified in the security policy; and in response to determining that it does not have a sensor capable of sensing an environmental condition related to the environment of the mobile computing device and corresponding to a security factor specified in the security policy, request information relating to said environmental condition from one or more further mobile computing devices determined to have a suitable sensor. determine a first security factor on the basis of an environmental condition related to an environment of the mobile computing device and detected at the mobile computing device; determine a second security factor on the basis of an environmental condition related to said environment of the mobile computing device and detected at another, different, mobile computing device; and determine that it does not have a sensor capable of sensing an environmental condition related to the environment of the mobile computing device and corresponding to a security factor specified in the security policy; and in response to determining that it does not have a sensor capable of sensing an environmental condition related to the environment of the mobile computing device and corresponding to a security factor specified in the security policy, request information relating to said environmental condition from one or more further mobile computing devices determined to have a suitable sensor.
An encapsulant for a PV module, comprising: an ethylene/a-olefin-based copolymer; a silane modified ethylene/a-olefin-based copolymer; and a heat resistant polymer resin having a melting point (Tm) in a range of 100 to 150°C and which is higher than the melting point of the ethylene/a-olefin-based co-polymer, wherein the heat resistant polymer resin is included at 0.01 parts by weight or more but less than 3 parts by weight with respect to 100 parts by weight of a mixture of the ethylene/a-olefin-based copolymer and the silane modified ethylene/a-olefin-based copolymer, wherein the heat resistant polymer resin is a low density polyethylene LDPE, wherein the heat resistant polymer resin has a melt index in a range of 0.1 g/10 min to 40 g/10 min at a temperature of 190°C and a load of 2.16 kg. an ethylene/a-olefin-based copolymer; a silane modified ethylene/a-olefin-based copolymer; and a heat resistant polymer resin having a melting point (Tm) in a range of 100 to 150°C and which is higher than the melting point of the ethylene/a-olefin-based co-polymer, wherein the heat resistant polymer resin is included at 0.01 parts by weight or more but less than 3 parts by weight with respect to 100 parts by weight of a mixture of the ethylene/a-olefin-based copolymer and the silane modified ethylene/a-olefin-based copolymer, wherein the heat resistant polymer resin is a low density polyethylene LDPE, wherein the heat resistant polymer resin has a melt index in a range of 0.1 g/10 min to 40 g/10 min at a temperature of 190°C and a load of 2.16 kg.
A sound collecting device that is located in a first space and collects sounds generated in a second space isolated from the first space by a predetermined plate, comprising: a metal plate; a piezoelectric element fixed on an upper surface of the metal plate; a housing that has a tubular shape having opened upper and lower surfaces, and has an upper end surface adhesively attached to a lower surface of the metal plate and a lower end surface adhesively attached to the predetermined plate; and a vibration pickup terminal that is accommodated in the housing, and comprises a leg part adhesively attached to the lower surface of the metal plate, a shaft part extending downward from the leg part, and a tip part which is formed at a tip of the shaft part in the downward direction and comes into contact with the predetermined plate when the housing is adhesively attached to the predetermined plate, wherein the shaft part is hollow, and wherein the vibration pickup terminal is configured to have a pogo pin structure in which a spring is accommodated in a hollow of the shaft part, an upper end of the spring is connected to the leg part, and a lower end of the spring is connected to the tip part. a metal plate; a piezoelectric element fixed on an upper surface of the metal plate; a housing that has a tubular shape having opened upper and lower surfaces, and has an upper end surface adhesively attached to a lower surface of the metal plate and a lower end surface adhesively attached to the predetermined plate; and a vibration pickup terminal that is accommodated in the housing, and comprises a leg part adhesively attached to the lower surface of the metal plate, a shaft part extending downward from the leg part, and a tip part which is formed at a tip of the shaft part in the downward direction and comes into contact with the predetermined plate when the housing is adhesively attached to the predetermined plate, wherein the shaft part is hollow, and wherein the vibration pickup terminal is configured to have a pogo pin structure in which a spring is accommodated in a hollow of the shaft part, an upper end of the spring is connected to the leg part, and a lower end of the spring is connected to the tip part.
Kit comprising a threaded sleeve for assembling with heat input in a component manufactured by FDM process and a guide sleeve having a heating coil wherein - the threaded sleeve has a groove along its longitudinal axis - an outwardly facing surface of the threaded sleeve comprises a self-tapping thread having cutting edges and an inwardly facing surface of the threaded sleeve comprises a metric thread. - the threaded sleeve has a groove along its longitudinal axis - an outwardly facing surface of the threaded sleeve comprises a self-tapping thread having cutting edges and an inwardly facing surface of the threaded sleeve comprises a metric thread.
A non-pneumatic tire comprising: an annular tread portion for coming into contact with a road surface; an annular inner portion disposed inward of the tread portion in a tire radial direction; and a plurality of connecting portions connecting the tread portion and the inner portion; wherein the tread portion comprises a first portion that comes into contact with the road surface and a second portion comprising an inner surface facing the inner portion, characterized in that a thermal conductivity of the second portion is greater than a thermal conductivity of the first portion. an annular tread portion for coming into contact with a road surface; an annular inner portion disposed inward of the tread portion in a tire radial direction; and a plurality of connecting portions connecting the tread portion and the inner portion; wherein the tread portion comprises a first portion that comes into contact with the road surface and a second portion comprising an inner surface facing the inner portion, characterized in that a thermal conductivity of the second portion is greater than a thermal conductivity of the first portion.
An adhesive self-cleaning antimicrobial element, comprising: an adhesive layer (407, 507); a polymeric support layer connected with the adhesive layer; an antimicrobial layer connected with the polymeric support layer and configured to sanitize the adhesive self-cleaning antimicrobial element, wherein the antimicrobial layer comprises an antimicrobial material, and wherein the adhesive self-cleaning antimicrobial element is sized to conform to an exposed surface of a passenger seat; and characterized in that the adhesive self-cleaning antimicrobial element comprises a machine-readable indicium containing information indicative of an installation date or an effectiveness date of the antimicrobial material. an adhesive layer (407, 507); a polymeric support layer connected with the adhesive layer; an antimicrobial layer connected with the polymeric support layer and configured to sanitize the adhesive self-cleaning antimicrobial element, wherein the antimicrobial layer comprises an antimicrobial material, and wherein the adhesive self-cleaning antimicrobial element is sized to conform to an exposed surface of a passenger seat; and characterized in that the adhesive self-cleaning antimicrobial element comprises a machine-readable indicium containing information indicative of an installation date or an effectiveness date of the antimicrobial material.
A light-emitting device assembly, the assembly comprising: a contact carrier having a light-emitting device receiving region and contacts provided proximate to the light-emitting device receiving region; a light-emitting device, the light-emitting device having leads which extend therefrom, the leads electrically engaging the contacts; a heat sink thermally coupled to the light-emitting device. the heat sink drawing heat away from the light-emitting device to maintain the light-emitting device at a proper operating temperature; and a securing member, the securing member extending through the contact carrier and into the heat sink to retain the contact carrier and the light-emitting device in position relative to each other and relative to the heat sink. characterized in that the contacts of the contact carrier are resilient, the leads of the light-emitting device mechanically engage the resilient contacts, the contact carrier is releasably retained by the securing member, the contact carrier is a substrate which is positioned between the light-emitting device and the heat sink, and the substrate has a heat sink receiving opening through which a portion of the heat sink extends to thermally engage the light-emitting device. a contact carrier having a light-emitting device receiving region and contacts provided proximate to the light-emitting device receiving region; a light-emitting device, the light-emitting device having leads which extend therefrom, the leads electrically engaging the contacts; a heat sink thermally coupled to the light-emitting device. the heat sink drawing heat away from the light-emitting device to maintain the light-emitting device at a proper operating temperature; and a securing member, the securing member extending through the contact carrier and into the heat sink to retain the contact carrier and the light-emitting device in position relative to each other and relative to the heat sink.
An indicating instrument comprising: an indicator; an indication panel where index parts are disposed along an outer periphery of a front surface side of this indicator; a drive member that is provided in the back of the indication panel and the indicator and includes a rotatable pointer shaft; a pointer that is fixed to the pointer shaft provided on this drive member and rotatably points along the index parts disposed on the indication panel; a circuit board that is electrically coupled to and is mechanically fixed to and held on the drive member; and an instrument case that fixes and holds this circuit board, with the pointer being routed around the rear of the indicator to the front of the indication panel; wherein a marker part comprising a triangular projecting part that is capable of aligning the pointer is provided on the instrument case. an indicator; an indication panel where index parts are disposed along an outer periphery of a front surface side of this indicator; a drive member that is provided in the back of the indication panel and the indicator and includes a rotatable pointer shaft; a pointer that is fixed to the pointer shaft provided on this drive member and rotatably points along the index parts disposed on the indication panel; a circuit board that is electrically coupled to and is mechanically fixed to and held on the drive member; and an instrument case that fixes and holds this circuit board, with the pointer being routed around the rear of the indicator to the front of the indication panel; wherein a marker part comprising a triangular projecting part that is capable of aligning the pointer is provided on the instrument case.