mhurhangee/ep-ind-claims huggingface dataset:
A mated connection between two sectional boom members comprising: a) a first connecter affixed to an end of a first sectional boom member and a second connector affixed to an end of a second sectional boom member; b) each first and second connector (70, 80) having at least one extension (71a, 81a), with each extension (71a, 81a) having an aperture there through sized to receive a pin; c) the pin passing through the aperature of each extension of the first connector and the aperture of each extension of the second connector, characterized in that: d) wherein the extension on the first connector comprises a rounded first alignment surfaces on a distal end of the extension; and the second connector comprises a pocket adjacent a base of the extension on the second connector that provides a second alignment surface, the first and second alignment surfaces (74, 84) being configured such that the first connector and the second connector can be brought together from an angled relationship and the first and second alignment surfaces (74, 84) cooperate to guide the first connector and the second connector in two dimensions within a plane transverse to the axis of the aperture through the first connector and the second connector into a relative position so as to align the aperture in the at least one extension on the first connector with the aperture of the at least one extension on the second connector sufficiently that the pin can be inserted through each aperture. a) a first connecter affixed to an end of a first sectional boom member and a second connector affixed to an end of a second sectional boom member; b) each first and second connector (70, 80) having at least one extension (71a, 81a), with each extension (71a, 81a) having an aperture there through sized to receive a pin; c) the pin passing through the aperature of each extension of the first connector and the aperture of each extension of the second connector, characterized in that: d) wherein the extension on the first connector comprises a rounded first alignment surfaces on a distal end of the extension; and the second connector comprises a pocket adjacent a base of the extension on the second connector that provides a second alignment surface, the first and second alignment surfaces (74, 84) being configured such that the first connector and the second connector can be brought together from an angled relationship and the first and second alignment surfaces (74, 84) cooperate to guide the first connector and the second connector in two dimensions within a plane transverse to the axis of the aperture through the first connector and the second connector into a relative position so as to align the aperture in the at least one extension on the first connector with the aperture of the at least one extension on the second connector sufficiently that the pin can be inserted through each aperture.
A washing system for determining an operating state of a dishwasher, comprising: a dishwasher, wherein the dishwasher comprises a dishwasher interface for acquiring and providing a value of a washing temperature parameter, a dispenser unit, in particular wherein the dispenser unit comprises a dispenser interface, wherein the dispenser unit is connected to the dishwasher for dosing a detergent to the dishwasher, a logic unit, in particular wherein the logic unit is connectable to the dishwasher interface and the dispenser interface, and a current sensor for measuring an electrical current consumed by the dishwasher, wherein the current sensor is connected to the logic unit.
An intelligently-connected vehicle LED headlight using graphene, comprising an imaging lens assembly, an LED light source and a heat dissipation assembly, wherein the imaging lens assembly is connected to the LED light source, and the LED light source is connected to the heat dissipation assembly, the heat generated by the LED light source is dissipated by the heat dissipation assembly, and the light of the LED light source is changed by the imaging lens assembly, the imaging lens assembly enables the light emission manner to be a way of horizontally emitting light by imaging, wherein the heat dissipation assembly comprises a super-heat-conducting vapor chamber, a radiator, and a graphene heat-conducting glue, and the LED light source, the graphene heat-conducting glue, and the super-heat-conducting vapor chamber are provided inside a housing of the radiator.
A phenyl-N-acyl derivative of a biogenic amine, which derivative is a compound of general formula: selected from: 1) R 1 is R 2 is H, R 3 is COOH, R 4 is OH; 2) R 1 is R 2 is H, R 3 is COOH, R 4 is H; 3) R 1 is R 2 is H, R 3 is COOCH 3, R 4 is OH; 4) R 1 is R 2 is H, R 3 is COOCH 3, R 4 is H; 5) R 1 is R 2 is H, R 3 is R 4 is OH; 6) R 1 is R 2 is H, R 3 is R 4 is H; 7) R 1 is R 2 is R 3 is H, R 4 is H; 8) R 1 is R 2 is R 3 is H, R 4 is OH; 9) R 1 is R 2 is H, R 3 is H, R 4 is OH; 10) R 1 is R 2 is H, R 3 is H, R 4 is H; 11) R 1 is R 2 is H, R 3 is R 4 is H; 12) R 1 is R 2 is H, R 3 is R 4 is H; or a pharmaceutically acceptable salt thereof, for use as an analgetic or anti-inflammatory. 1) R 1 is R 2 is H, R 3 is COOH, R 4 is OH; 2) R 1 is R 2 is H, R 3 is COOH, R 4 is H; 3) R 1 is R 2 is H, R 3 is COOCH 3, R 4 is OH; 4) R 1 is R 2 is H, R 3 is COOCH 3, R 4 is H; 5) R 1 is R 2 is H, R 3 is R 4 is OH; 6) R 1 is R 2 is H, R 3 is R 4 is H; 7) R 1 is R 2 is R 3 is H, R 4 is H; 8) R 1 is R 2 is R 3 is H, R 4 is OH; 9) R 1 is R 2 is H, R 3 is H, R 4 is OH; 10) R 1 is R 2 is H, R 3 is H, R 4 is H; 11) R 1 is R 2 is H, R 3 is R 4 is H; 12) R 1 is R 2 is H, R 3 is R 4 is H; or a pharmaceutically acceptable salt thereof, for use as an analgetic or anti-inflammatory.
A safety cabin for a residential or camper van, wherein the safety cabin comprises a part of the residential or camper van which does not belong to a driver's cab, wherein the safety cabin comprises at least one stabilising deformation element made of fibre-reinforced plastic in at least one area of the cabin, wherein the fibre reinforcement is configured for an increase in a strength of the safety cabin and a conversion of kinetic energy in the event of an at least partially inelastic impact on the safety cabin, wherein the deformation element comprises a mixed fibre reinforcement with a weight percentage of aramid fibres between 10%-90%, which also comprises carbon fibres, wherein the carbon fibres are selected from the group comprising cellulose, flax, hemp fibre, sisal and/or wood, and the deformation element has a honeycomb structure. wherein the fibre reinforcement is configured for an increase in a strength of the safety cabin and a conversion of kinetic energy in the event of an at least partially inelastic impact on the safety cabin, wherein the deformation element comprises a mixed fibre reinforcement with a weight percentage of aramid fibres between 10%-90%, which also comprises carbon fibres, wherein the carbon fibres are selected from the group comprising cellulose, flax, hemp fibre, sisal and/or wood, and the deformation element has a honeycomb structure.
A water-based pigment dispersion comprising a pigment, a polymer dispersant and an aqueous medium in which the pigment is dispersed in the aqueous medium using the polymer dispersant, the polymer dispersant being a water-insoluble polymer comprising carboxy groups that are at least partially neutralized with an alkali metal hydroxide, and having a crosslinked structure obtained by reacting a part of the carboxy groups with a water-insoluble polyfunctional epoxy compound, the acid value of the water-insoluble polymer is not less than 200 mgKOH/g and not more than 320 mgKOH/g, said water-based pigment dispersion satisfying the following conditions 1 and 2: Condition 1: a value calculated according to the formula: 100 − neutralization degree − crosslinking degree / 100 × acid value of carboxy group-containing water-insoluble polymer, being not less than 32 mgKOH/g and not more than 130 mgKOH/g; and Condition 2: a value calculated according to the formula: neutralization degree / 100 × acid value of carboxy group-containing water-insoluble polymer, being not less than 48 mgKOH/g and not more than 144 mgKOH/g, wherein the neutralization degree means a ratio of a mole equivalent number of the alkali metal hydroxide to a mole equivalent number of the carboxy groups of the water-insoluble polymer [(mole equivalent number of alkali metal hydroxide)/(mole equivalent number of carboxy groups of water-insoluble polymer)], and the crosslinking degree means a ratio of a mole equivalent number of epoxy groups of the water-insoluble polyfunctional epoxy compound to a mole equivalent number of the carboxy groups of the water-insoluble polymer [(mole equivalent number of epoxy groups of water-insoluble polyfunctional epoxy compound)/(mole equivalent number of carboxy groups of water-insoluble polymer)]. Condition 1: a value calculated according to the formula: 100 − neutralization degree − crosslinking degree / 100 × acid value of carboxy group-containing water-insoluble polymer, being not less than 32 mgKOH/g and not more than 130 mgKOH/g; and Condition 2: a value calculated according to the formula: neutralization degree / 100 × acid value of carboxy group-containing water-insoluble polymer, being not less than 48 mgKOH/g and not more than 144 mgKOH/g, wherein the neutralization degree means a ratio of a mole equivalent number of the alkali metal hydroxide to a mole equivalent number of the carboxy groups of the water-insoluble polymer [(mole equivalent number of alkali metal hydroxide)/(mole equivalent number of carboxy groups of water-insoluble polymer)], and the crosslinking degree means a ratio of a mole equivalent number of epoxy groups of the water-insoluble polyfunctional epoxy compound to a mole equivalent number of the carboxy groups of the water-insoluble polymer [(mole equivalent number of epoxy groups of water-insoluble polyfunctional epoxy compound)/(mole equivalent number of carboxy groups of water-insoluble polymer)].
A non-transitory machine-readable storage medium encoded with instructions for a keyed cryptographic operation having a first and second portion for execution by a cryptographic system mapping an input message to an output message, comprising: - instructions for outputting first cryptographic data from a first portion of the cryptographic operation to a secure hardware device implementing a secure function on the first cryptographic data; - instructions for receiving output data from the secure hardware device; - instructions for implementing an inverse of the secure function on the output data; and - instructions for performing a second portion of the cryptographic operation on the inverted output data, wherein the instructions for implementing the inverse of the secure function on the output data are securely merged with the instructions for performing the second portion of the cryptographic operation on the inverted output data so that the inverted output is not accessible to an attacker. - instructions for outputting first cryptographic data from a first portion of the cryptographic operation to a secure hardware device implementing a secure function on the first cryptographic data; - instructions for receiving output data from the secure hardware device; - instructions for implementing an inverse of the secure function on the output data; and - instructions for performing a second portion of the cryptographic operation on the inverted output data,
A composition for use in treating ocular neovascularization disease, comprising: a guide nucleic acid capable of targeting one or more target sequences, or a nucleic acid sequence encoding the same, wherein the one or more target sequences are selected from SEQ ID NOs: 20, 26 and 105 in nucleic acid sequences of an HIF 1A gene, wherein the guide nucleic acid includes a guide domain and at least one selected from the group consisting of a first complementary domain, a linker domain, a second complementary domain, a proximal domain and a tail domain; and an editor protein or a nucleic acid sequence encoding the same, wherein the editor protein is a Campylobacter jejuni Cas9 protein. a guide nucleic acid capable of targeting one or more target sequences, or a nucleic acid sequence encoding the same, wherein the one or more target sequences are selected from SEQ ID NOs: 20, 26 and 105 in nucleic acid sequences of an HIF 1A gene, wherein the guide nucleic acid includes a guide domain and at least one selected from the group consisting of a first complementary domain, a linker domain, a second complementary domain, a proximal domain and a tail domain; and an editor protein or a nucleic acid sequence encoding the same, wherein the editor protein is a Campylobacter jejuni Cas9 protein.
An electromagnetic-wave absorbing sheet comprising: an electromagnetic-wave absorbing layer that includes a particulate electromagnetic-wave absorbing material and a rubber binder; and a dielectric layer that contains a dielectric and is arranged on a back surface of the electromagnetic-wave absorbing layer, characterized in that the electromagnetic-wave absorbing material is a magnetic iron oxide that magnetically resonates in a frequency band in or above a millimeter-wave band, and the dielectric layer contains no conductive powder, is non-magnetic and has flexibility, a real part of a complex relative permittivity of the dielectric layer is 2 or more and 6 or less, and the dielectric layer has a thickness of 10 μm or more and 100 μm or less. an electromagnetic-wave absorbing layer that includes a particulate electromagnetic-wave absorbing material and a rubber binder; and a dielectric layer that contains a dielectric and is arranged on a back surface of the electromagnetic-wave absorbing layer, characterized in that the electromagnetic-wave absorbing material is a magnetic iron oxide that magnetically resonates in a frequency band in or above a millimeter-wave band, and the dielectric layer contains no conductive powder, is non-magnetic and has flexibility, a real part of a complex relative permittivity of the dielectric layer is 2 or more and 6 or less, and the dielectric layer has a thickness of 10 μm or more and 100 μm or less.
A method of manufacturing a graphene and graphene oxide layer comprising the steps of: a) preparing a suspension of a mixture of graphene and graphene oxide comprising a mixture of flake shaped graphene and graphene oxide particles in a suspension liquid, wherein the suspension liquid is water, b) applying the suspension of the mixture of graphene and graphene oxide on a support, c) heating the suspension and the support to evaporate at least a part of the suspension liquid for forming a layer of graphene and graphene oxide on the support, and d) subjecting the graphene and graphene oxide layer and the support to pressure. a) preparing a suspension of a mixture of graphene and graphene oxide comprising a mixture of flake shaped graphene and graphene oxide particles in a suspension liquid, wherein the suspension liquid is water, b) applying the suspension of the mixture of graphene and graphene oxide on a support, c) heating the suspension and the support to evaporate at least a part of the suspension liquid for forming a layer of graphene and graphene oxide on the support, and d) subjecting the graphene and graphene oxide layer and the support to pressure.
A printed matter comprising: a base material; a main image which is printed on the base material with a first ink (y, m, c); a first sub image embedded in the main image which has the same color as a color of the main image in a human visual sense, and is printed with a second ink (y, m, c, f) to absorb light of an infrared wavelength band by a first absorption coefficient; and a second sub image embedded in the main image which has the same color as the color of the main image in a human visual sense, and is printed with a third ink (k) to absorb the light of the infrared wavelength band by a second absorption coefficient, characterized in that the first ink (y, m, c) is a visible ink which transmits light of the infrared wavelength band, the second ink (y, m, c, f) includes a fluorescent ink (f), which absorbs light of the infrared wavelength band by a predetermined absorption coefficient, and the visible ink (y, m, c) printed in a superimposed manner. a base material; a main image which is printed on the base material with a first ink (y, m, c); a first sub image embedded in the main image which has the same color as a color of the main image in a human visual sense, and is printed with a second ink (y, m, c, f) to absorb light of an infrared wavelength band by a first absorption coefficient; and a second sub image embedded in the main image which has the same color as the color of the main image in a human visual sense, and is printed with a third ink (k) to absorb the light of the infrared wavelength band by a second absorption coefficient, characterized in that the first ink (y, m, c) is a visible ink which transmits light of the infrared wavelength band, the second ink (y, m, c, f) includes a fluorescent ink (f), which absorbs light of the infrared wavelength band by a predetermined absorption coefficient, and the visible ink (y, m, c) printed in a superimposed manner.
A surgical assembly, comprising: a fixation device comprising a body, a flat side surface, at least one eyelet extending through opposing surfaces of the body, and a threaded recess within the body of the fixation device; a flexible strand attached to the at least one eyelet; and an inserter comprising an outer shaft having a longitudinal axis, a proximal end and a distal end, a handle provided at the proximal end, and an inner shaft having a threaded distal end configured to securely engage the threaded recess of the fixation device, characterised in that a most distal end of the outer shaft of the inserter terminates in an angled surface that matingly engages a corresponding angled surface on the flat side surface of the fixation device. a fixation device comprising a body, a flat side surface, at least one eyelet extending through opposing surfaces of the body, and a threaded recess within the body of the fixation device; a flexible strand attached to the at least one eyelet; and an inserter comprising an outer shaft having a longitudinal axis, a proximal end and a distal end, a handle provided at the proximal end, and an inner shaft having a threaded distal end configured to securely engage the threaded recess of the fixation device, characterised in that a most distal end of the outer shaft of the inserter terminates in an angled surface that matingly engages a corresponding angled surface on the flat side surface of the fixation device.
Method for determining an ignition advance setpoint of a spark-ignition internal combustion engine comprising the steps of: - determination of a torque setpoint (Cc), - determination of an effective torque (Ce), - determination of a first ignition advance efficiency ( R AAsmi) as a function of the set torque (Cc) and the effective torque (Ce), in the case of a fuel injection mode without micro-injection, - determination of an activation state or not of a fuel injection mode for which part of this fuel is intended to be injected by micro-injection ( Smi), characterized in that it further comprises the steps of: - determination of a micro injection yield ( Rmi), - determination of the ignition advance efficiency with micro-injection ( R AAami), from the micro-injection efficiency ( Rmi) and the first ignition advance efficiency ( R AAsmi), - determination and application of the ignition advance instruction (C AA) as a function of the ignition advance efficiency with micro-injection ( R AAami) determined previously. - determination of a torque setpoint (Cc), - determination of an effective torque (Ce), - determination of a first ignition advance efficiency ( R AAsmi) as a function of the set torque (Cc) and the effective torque (Ce), in the case of a fuel injection mode without micro-injection, - determination of an activation state or not of a fuel injection mode for which part of this fuel is intended to be injected by micro-injection ( Smi), - determination of a micro injection yield ( Rmi), - determination of the ignition advance efficiency with micro-injection ( R AAami), from the micro-injection efficiency ( Rmi) and the first ignition advance efficiency ( R AAsmi), - determination and application of the ignition advance instruction (C AA) as a function of the ignition advance efficiency with micro-injection ( R AAami) determined previously.
Semiconductor chip with a semiconductor body comprising a semiconductor layer sequence with an active region provided for generating radiation, wherein - a mirror structure is arranged on the semiconductor body said mirror structure comprising a mirror layer and a dielectric layer structure that is arranged at least in regions between the mirror layer and the semiconductor body; - by means of the dielectric layer structure a dielectric mirror structure is formed, which comprises a plurality of layer pairs each consisting of a first layer and a second layer, wherein the first layer and the second layer have refractive indices that are different from one another; - the dielectric layer structure has a cutout; and - a contact structure is arranged on the semiconductor body, where the contact structure is arranged in the at least one cutout of the dielectric layer structure. - a mirror structure is arranged on the semiconductor body said mirror structure comprising a mirror layer and a dielectric layer structure that is arranged at least in regions between the mirror layer and the semiconductor body; - by means of the dielectric layer structure a dielectric mirror structure is formed, which comprises a plurality of layer pairs each consisting of a first layer and a second layer, wherein the first layer and the second layer have refractive indices that are different from one another; - the dielectric layer structure has a cutout; and - a contact structure is arranged on the semiconductor body, where the contact structure is arranged in the at least one cutout of the dielectric layer structure.
A method of modifying an initially predetermined path ( x (s)) of a robot assembly comprising at least one robot, the method comprising the steps of: selecting a portion of the initially predetermined path; modifying the selected portion; specifying a modified path ( x' (s)) on the basis of the modified portion; determining a deviation (d max) between the initially predetermined path and the modified path, in particular as a function of a predetermined selection condition; and triggering (S70, S80) a reaction if the deviation satisfies a predetermined reaction condition, in particular as a function of a predetermined selection condition, wherein the reaction condition is satisfied if the deviation exceeds a predetermined threshold value, and the portion is selected by means of a manual selection of an instruction of a program by which the path is predetermined, and / or by a manually controlled approach of a corresponding pose of the robot assembly. selecting a portion of the initially predetermined path; modifying the selected portion; specifying a modified path ( x' (s)) on the basis of the modified portion; determining a deviation (d max) between the initially predetermined path and the modified path, in particular as a function of a predetermined selection condition; and triggering (S70, S80) a reaction if the deviation satisfies a predetermined reaction condition, in particular as a function of a predetermined selection condition, wherein the reaction condition is satisfied if the deviation exceeds a predetermined threshold value, and the portion is selected by means of a manual selection of an instruction of a program by which the path is predetermined, and / or by a manually controlled approach of a corresponding pose of the robot assembly.