mhurhangee/ep-ind-claims huggingface dataset:
A cold mirror suitable for a head-up display apparatus, the cold mirror including a dielectric multi-layer configured to reflect an image displayed on a display to make a reflected image of the image be viewed by a viewer while letting infrared light penetrate, wherein, when a difference between an amount of variation in phase of p-polarized light reflected by the cold mirror between before and after the reflection and an amount of variation in phase of s-polarized light reflected by the cold mirror between before and after the reflection is defined as a reflection phase difference, a relationship between an incident wavelength and the reflection phase difference is set so that the reflection phase difference falls within a range of 180±60 degrees for an entire visible wavelength range of 420 to 680 nm and for an incident angle of light falling on the cold mirror of 30 degrees.
Use of cenospheres having i) a particle size distribution, as determined by laser diffraction, in the range of 5-600 μm; ii) a mineral composition of - 27-33 wt.% of Al 2 O 3, - 55-65 wt.% of SiO 2, - 4-8 wt.% of Fe 2 O 3, and - optionally further oxides; iii) a gas composition of - 30-95 %, preferably 50-85 % of CO 2, - 5-70 %, preferably 15-50 % of nitrogen, and - optionally further gases; for improving the self-extinguishing properties of polymer foam, such foam a) being prepared from polymer based on vinyl aromatic monomer (and optionally one or more comonomers) and b) containing one or more athermanous additives, the improvement being measured in accordance with DIN 4102 B1 and B2 test method, wherein the amount of cenospheres is 0.1-20 % by weight, based on the weight of polymer. i) a particle size distribution, as determined by laser diffraction, in the range of 5-600 μm; ii) a mineral composition of - 27-33 wt.% of Al 2 O 3, - 55-65 wt.% of SiO 2, - 4-8 wt.% of Fe 2 O 3, and - optionally further oxides; - 27-33 wt.% of Al 2 O 3, - 55-65 wt.% of SiO 2, - 4-8 wt.% of Fe 2 O 3, and - optionally further oxides; iii) a gas composition of - 30-95 %, preferably 50-85 % of CO 2, - 5-70 %, preferably 15-50 % of nitrogen, and - optionally further gases; - 30-95 %, preferably 50-85 % of CO 2, - 5-70 %, preferably 15-50 % of nitrogen, and - optionally further gases; for improving the self-extinguishing properties of polymer foam, such foam a) being prepared from polymer based on vinyl aromatic monomer (and optionally one or more comonomers) and b) containing one or more athermanous additives, a) being prepared from polymer based on vinyl aromatic monomer (and optionally one or more comonomers) and b) containing one or more athermanous additives, the improvement being measured in accordance with DIN 4102 B1 and B2 test method, wherein the amount of cenospheres is 0.1-20 % by weight, based on the weight of polymer.
A coated optical fiber comprising a silica type glass optical fiber coated with 2 layers of UV-curable resin; wherein the sum of respective contraction stress indices FI defined in said two layers of UV-curable resin by the following expression: FI N = Young ′ s modolus MPa of the UV − curable resin layer at − 40 °C × cross − sectional area mm 2 of the UV − curable resin layer × effective linear expansion coefficient 10 − 6 / °C / 10 6 × temperature difference 190 °C is 3 or less; and wherein the first UV-curable resin layer is obtained by curing a resin composition containing: an oligomer having a molecular weight of at least 5000; a multifunctional monomer having a methylene group with a carbon number of 5 to 11; and a monomer having a heterocycle and/or a monomer having a multi-membered ring, the heterocyclic monomer including N-vinylcaprolactam, said multifunctional monomer having a weight ratio of 0.02 to 0.04 with respect to said oligomer; wherein said first UV-curable resin layer has a breaking strength of at least 4.0 MPa, characterized in that the oligomer of the first UV-curable resin layer and the second UV-curable resin layer includes 2,4-tolylene diisocyanate, and the heterocyclic monomer of the second UV-curable resin layer contains N-vinylcaprolactam. an oligomer having a molecular weight of at least 5000; a multifunctional monomer having a methylene group with a carbon number of 5 to 11; and a monomer having a heterocycle and/or a monomer having a multi-membered ring, the heterocyclic monomer including N-vinylcaprolactam, said multifunctional monomer having a weight ratio of 0.02 to 0.04 with respect to said oligomer; wherein said first UV-curable resin layer has a breaking strength of at least 4.0 MPa, characterized in that the oligomer of the first UV-curable resin layer and the second UV-curable resin layer includes 2,4-tolylene diisocyanate, and the heterocyclic monomer of the second UV-curable resin layer contains N-vinylcaprolactam.
Monolithic gas sensor arrangement configured as a humidity sensor arrangement, the sensor arrangement comprising - a sensor with a first transducer comprising a first sensitive layer and a second transducer comprising a second sensitive layer; - wherein the first and the second sensitive layer (17, 18) are configured to absorb water molecules and are of different materials and/or of different thicknesses; and - a readout circuit that generates a first and a second measurement signal depending on the first and the second transducer (11, 12), wherein the readout circuit comprises a memory and is configured to provide a result signal as a pre-defined function of the first and the second measurement signal and data stored in the memory, wherein the data stored in the memory comprises weight factors that are functions of the first and/or the second measurement signal and which are used to generate the result signal as a weighted mean of the first and the second measurement signal, characterised in that equal weight factors for the first and the second measurement signal RH 1, RH 2 are used in order to obtain an initial estimate RH init of a relative humidity, RH init = 1 2 RH 1 + 1 2 RH 2, and, using the initial estimate RH init, an updated estimate for the relative humidity RH is obtained via the equation: RH = C 1 RH init RH 1 + C 2 RH init RH 2, wherein C 1 ( RH init) is a first optimal weight factor and depends on the relative humidity and C 2 ( RH init) is a second optimal weight factor and depends on the relative humidity. - a sensor with a first transducer comprising a first sensitive layer and a second transducer comprising a second sensitive layer; - wherein the first and the second sensitive layer (17, 18) are configured to absorb water molecules and are of different materials and/or of different thicknesses; and - a readout circuit that generates a first and a second measurement signal depending on the first and the second transducer (11, 12), wherein the readout circuit comprises a memory and is configured to provide a result signal as a pre-defined function of the first and the second measurement signal and data stored in the memory, wherein the data stored in the memory comprises weight factors that are functions of the first and/or the second measurement signal and which are used to generate the result signal as a weighted mean of the first and the second measurement signal, characterised in that equal weight factors for the first and the second measurement signal RH 1, RH 2 are used in order to obtain an initial estimate RH init of a relative humidity, RH init = 1 2 RH 1 + 1 2 RH 2, and, using the initial estimate RH init, an updated estimate for the relative humidity RH is obtained via the equation: RH = C 1 RH init RH 1 + C 2 RH init RH 2, wherein C 1 ( RH init) is a first optimal weight factor and depends on the relative humidity and C 2 ( RH init) is a second optimal weight factor and depends on the relative humidity.
A method of a primary evolved Node B, P-ENB, controlling a primary cell of a User Equipment, UE, the method comprising: receiving a first packet from a serving gateway on a non-primary evolved packet system, NP-EPS, bearer configured between the P-ENB and the serving gateway, wherein the first packet is for a non-primary data radio bearer, NP-DRB, including a first packet data convergence protocol, PDCP, entity of the P-ENB and a first radio link control, RLC, entity of a non-primary evolved node B, NP-ENB, controlling a non-primary cell of the UE; generating a PDCP protocol data unit, PDU, from the first packet, by the first PDCP entity of the P-ENB; and transmitting, to the first RLC entity of the NP-ENB, the PDCP PDU; wherein a primary evolved packet system, P-EPS, bearer is configured between the P-ENB and the serving gateway, wherein a second packet for a primary data radio bearer, P-DRB, including a second PDCP entity of the P-ENB and a second RLC entity of the P-ENB is received on the P-EPS bearer and is delivered from the second PDCP entity of the P-ENB to the second RLC entity of the P-ENB. receiving a first packet from a serving gateway on a non-primary evolved packet system, NP-EPS, bearer configured between the P-ENB and the serving gateway, wherein the first packet is for a non-primary data radio bearer, NP-DRB, including a first packet data convergence protocol, PDCP, entity of the P-ENB and a first radio link control, RLC, entity of a non-primary evolved node B, NP-ENB, controlling a non-primary cell of the UE; generating a PDCP protocol data unit, PDU, from the first packet, by the first PDCP entity of the P-ENB; and transmitting, to the first RLC entity of the NP-ENB, the PDCP PDU; wherein a primary evolved packet system, P-EPS, bearer is configured between the P-ENB and the serving gateway, wherein a second packet for a primary data radio bearer, P-DRB, including a second PDCP entity of the P-ENB and a second RLC entity of the P-ENB is received on the P-EPS bearer and is delivered from the second PDCP entity of the P-ENB to the second RLC entity of the P-ENB.
A washing machine comprising: a main body having an opening and a washing tub installed in the main body and forming a main washing space to hold laundry to be machine washed by the washing machine; and an auxiliary washing unit having a recessed auxiliary washing space in a periphery of said opening, separated from the main washing space and configured to hold laundry to be hand washed with water contained in the auxiliary washing space, wherein the auxiliary washing unit comprises a unit body including a bottom part and a side part and is pivotably coupled to the washing machine so that the auxiliary washing unit pivots and thereby tilts with respect to the main body to cause the water contained in the auxiliary washing space to be discharged to the main washing space, and wherein the auxiliary washing unit includes an auxiliary drain, characterised in that the auxiliary drain is formed as a recess in a portion of an upper end of the side part of the unit body provided to discharge the water contained in the auxiliary washing space to the main washing space when the auxiliary washing unit tilts with respect to the main body. a main body having an opening and a washing tub installed in the main body and forming a main washing space to hold laundry to be machine washed by the washing machine; and an auxiliary washing unit having a recessed auxiliary washing space in a periphery of said opening, separated from the main washing space and configured to hold laundry to be hand washed with water contained in the auxiliary washing space, wherein the auxiliary washing unit comprises a unit body including a bottom part and a side part and is pivotably coupled to the washing machine so that the auxiliary washing unit pivots and thereby tilts with respect to the main body to cause the water contained in the auxiliary washing space to be discharged to the main washing space, and wherein the auxiliary washing unit includes an auxiliary drain, characterised in that the auxiliary drain is formed as a recess in a portion of an upper end of the side part of the unit body provided to discharge the water contained in the auxiliary washing space to the main washing space when the auxiliary washing unit tilts with respect to the main body.
A material for laminated iron cores used as plural steel sheets to be overlapped with one another and punched when a laminated iron core is manufactured, wherein a surface roughness of the steel sheets forming the material for laminated iron cores is at an arithmetic mean roughness Ra of 0.40 μm or less, and a sheet thickness deviation in a sheet width direction of at least a portion used as the laminated iron core is 3 μm or less per 500 mm, the portion being of the steel sheets forming the material for laminated iron cores, and wherein a value, which is added up of a value resulting from multiplication of the sheet thickness deviation as described above by 0.05, and the surface roughness as described above, is less than 0.5.
A computer-implemented data processing method, comprising: obtaining, by a blockchain node and in a service consensus stage, a validation-ready preprocessing block in a current consensus round; validating the validation-ready preprocessing block; determining whether the validation-ready preprocessing block is validated; and in response to determining that the validation-ready preprocessing block is validated, proceeding, in parallel, with: starting validation on a next validation-ready preprocessing block, and performing, by using a predetermined processor, parallel data processing on service data stored in the validated validation-ready preprocessing block; wherein the predetermined processor is preconfigured, by the blockchain node, to implement consensus processing in the service consensus stage and data processing in the service submission stage using a first thread and a second thread, wherein the first thread is used to perform consensus processing on a validation ready preprocessing block, and the second thread is used to perform data processing on a validated preprocessing block. obtaining, by a blockchain node and in a service consensus stage, a validation-ready preprocessing block in a current consensus round; validating the validation-ready preprocessing block; determining whether the validation-ready preprocessing block is validated; and in response to determining that the validation-ready preprocessing block is validated, proceeding, in parallel, with: starting validation on a next validation-ready preprocessing block, and performing, by using a predetermined processor, parallel data processing on service data stored in the validated validation-ready preprocessing block; starting validation on a next validation-ready preprocessing block, and performing, by using a predetermined processor, parallel data processing on service data stored in the validated validation-ready preprocessing block; wherein the predetermined processor is preconfigured, by the blockchain node, to implement consensus processing in the service consensus stage and data processing in the service submission stage using a first thread and a second thread, wherein the first thread is used to perform consensus processing on a validation ready preprocessing block, and the second thread is used to perform data processing on a validated preprocessing block.
An electrostatic precipitator for removing a particulate material, comprising: a housing having an internally formed air path with an airflow communicating between an inlet for drawing polluted air containing particulate material and an air outlet for emitting clean air purified by removing the particulate material; an air stream generating means that generates an air stream; a discharging means that charges the particulate material; a collection device provided in the air stream to collect the particulate material which has been charged by the discharging means, said collection device including a collection belt; said collection belt being driven about an array of sprockets arranged on a shaft at either the top and/or the bottom of the device, where the axle of the shaft is substantially parallel with the direction of the air flow; characterized in that said collection belt comprises a flat wire belt defining a three-dimensional collection surface. a housing having an internally formed air path with an airflow communicating between an inlet for drawing polluted air containing particulate material and an air outlet for emitting clean air purified by removing the particulate material; an air stream generating means that generates an air stream; a discharging means that charges the particulate material; a collection device provided in the air stream to collect the particulate material which has been charged by the discharging means, said collection device including a collection belt; said collection belt being driven about an array of sprockets arranged on a shaft at either the top and/or the bottom of the device, where the axle of the shaft is substantially parallel with the direction of the air flow; characterized in that said collection belt comprises a flat wire belt defining a three-dimensional collection surface.
A wireless communication method of configuring measurement resources respectively associated with priorities, the method, comprising: determining at least one measurement resource with a lowest priority for each subframe, among measurement resources configured in one subframe, to be disregarded when a number of measurement resources configured in one subframe exceeds a maximum number of measurement resources that can be measured by a user equipment in one subframe, and determining not to update a Channel State Information, CSI, for the disregarded measurement resource, for each subframe, wherein the at least one measurement resource with the lowest priority is not disregarded A times within the duration of N subframes, where A is an integer larger than 1, N corresponds to one plus B*periodicity of the measurement resource, and B is an integer equal to or larger than 1. determining at least one measurement resource with a lowest priority for each subframe, among measurement resources configured in one subframe, to be disregarded when a number of measurement resources configured in one subframe exceeds a maximum number of measurement resources that can be measured by a user equipment in one subframe, and determining not to update a Channel State Information, CSI, for the disregarded measurement resource, for each subframe, wherein the at least one measurement resource with the lowest priority is not disregarded A times within the duration of N subframes, where A is an integer larger than 1, N corresponds to one plus B*periodicity of the measurement resource, and B is an integer equal to or larger than 1.
Electrical contact system comprising a contact element having three different connecting sections (12, 13, 14), which are arranged in a row, and a cable, wherein the first connecting section constitutes a crimping section for connection to an end, which is stripped of insulation, of the conductor of a cable, and wherein the second connecting section constitutes a welding connecting section at which, adjacent to the end which is stripped of insulation, a region, which is stripped of insulation, of the cable is connected to the conductor by means of a welding connection, and wherein furthermore the third connecting section forms an insulating crimp for connection to the cable sheath of the cable, wherein the conductor constitutes a stranded conductor made up of a bundle of stranded wires, characterized in that the conductor has been compressed or compacted to form an approximately cuboidal shape in the region of the welding connecting section.
A hearing device to be worn at least partly behind an ear of a user, comprising a hearing device housing, wherein the housing has a first end and an opposite second end, wherein the first end is configured to be positioned at the top of the ear and the second end is configured to be positioned lower than the first end when the hearing device is worn by a user; and a radio-frequency antenna arranged at least partly inside the housing, the radio-frequency antenna configured to receive and/or transmit electromagnetic radio-frequency signals, wherein the radio-frequency antenna comprises: at least one first antenna element with a plate like first surface, wherein the first antenna element has a feed for electrically connecting the radio-frequency antenna, wherein the first antenna element has a ground connection, wherein at least part of the radio-frequency antenna is arranged as a loop antenna or inverted F-antenna, IFA antenna, wherein the radio-frequency antenna is arranged at the first end of the hearing device housing, characterized in that the loop- or IFA-antenna part forms an opening, and wherein a transducer is arranged in the opening. at least one first antenna element with a plate like first surface, wherein the first antenna element has a feed for electrically connecting the radio-frequency antenna, wherein the first antenna element has a ground connection, wherein at least part of the radio-frequency antenna is arranged as a loop antenna or inverted F-antenna, IFA antenna, wherein the radio-frequency antenna is arranged at the first end of the hearing device housing, characterized in that the loop- or IFA-antenna part forms an opening, and wherein a transducer is arranged in the opening.
A network device configured to perform an access control to the network device from an external device via a network by setting of allowance or denial of access to the network device from a predetermined IPv6 address, comprising: a user-interface unit for storing set-up information input by a user including IPv6 address information specifying an IPv6 address or an IPv6 address range, allow/deny information specifying a choice of whether access to the network device from an external device, corresponding to the IPv6 address information, is allowed or denied, and prefix-ignore information specifying a choice of whether an IPv6 address portion corresponding to a varying part of an IPv6 address prefix, comprising a top level aggregation identifier, a sub top level identifier, and a next level aggregation identifier, received from the network is ignored or not ignored; and a packet-filtering unit for determining allowance or denial of reception of an incoming packet according to the set-up information; and a multi-prefix environment recognition unit for detecting whether the network device is in a multi-prefix environment, wherein the user-interface unit is configured to set the prefix-ignore information based on a result of the detection by the multi-prefix environment recognition unit, such that the user-interface unit is configured to set the prefix-ignore information to specify that the varying part of the prefix is ignored when the IPv6 address input by the user is a global unicast address and the network device is in a multi-prefix environment. a user-interface unit for storing set-up information input by a user including IPv6 address information specifying an IPv6 address or an IPv6 address range, allow/deny information specifying a choice of whether access to the network device from an external device, corresponding to the IPv6 address information, is allowed or denied, and prefix-ignore information specifying a choice of whether an IPv6 address portion corresponding to a varying part of an IPv6 address prefix, comprising a top level aggregation identifier, a sub top level identifier, and a next level aggregation identifier, received from the network is ignored or not ignored; and a packet-filtering unit for determining allowance or denial of reception of an incoming packet according to the set-up information; and a multi-prefix environment recognition unit for detecting whether the network device is in a multi-prefix environment, wherein the user-interface unit is configured to set the prefix-ignore information based on a result of the detection by the multi-prefix environment recognition unit, such that the user-interface unit is configured to set the prefix-ignore information to specify that the varying part of the prefix is ignored when the IPv6 address input by the user is a global unicast address and the network device is in a multi-prefix environment.